Can future energy needs be met through more integrated infrastructures?

Similar documents
Multiple Co-Benefits of a Fundamental Energy Transformation Perspectives from the Global Energy Assessment

Globale Energiestrategien für f r Nachhaltige Energienutzung: Rollen der fossilen und erneuerbaren Energieträger

Transformational Change Toward Decarbonization Initial Findings of the Global Energy Assessment

Costs and Benefits of Emissions Mitigation and the Value of Technology for Stabilizing Climate Change

Energy for Sustainable Development for the 21 st Century

How Can Global GHG Emissions Peak in the Next 10 to 15 Years?

Climate Stabilization Scenarios New Integrated Assessment Approaches (for IPCC AR5)

The Energy (ENE) Program

Global Transformations

Achieving SDG including sustainable energy for all within planetary boundaries

Energy at IIASA Overview & Highlights

Energy Perspectives & Environment. Today

The Road to Paris: From Global Commitments to National Pledges and Co-Benefits

ESA-4. Primary Energy Substitution. World Energy Supply (in Gtoe) Determinants 2: Supply. Keywan Riahi World population (billion)

Global Energy Assessment Towards a Sustainable Future

Opening Remarks. Prof. Dr. Nebojsa Nakicenovic. Deputy Director

Integrated Research: Nexus partnership studies with GEF and the World in 2050 Project

John Gale General Manager IEA Greenhouse Gas R&D Programme

Energy Technology Perspectives

Transitions to Low-Carbon Economy

Global Challenge of Climate Change

Long-Term Scenarios: Perspectives, Experience, and Activities

Climate and Investors: Eyes Wide Shut?

Paris Agreement: From Low Carbon to Decarbonization

Transformative Pathways towards Sustainability:

Global Energy Assessment Towards a Sustainable Future

Bio-CCS status and negative emissions after COP21

Energy Technology Perspectives for a Clean Energy Future

Commission proposal for Horizon Europe. #HorizonEU THE NEXT EU RESEARCH & INNOVATION PROGRAMME ( ) Thomas SCHUBERT CPU meeting 20 June 2018

Deep Decarbonization And Sustainable Development

IEA Technology Roadmap: Delivering sustainable bioenergy

TABLE OF CONTENTS TECHNOLOGY AND THE GLOBAL ENERGY ECONOMY TO 2050

Overview of Scenario Activities and Interactions with the Technology Experts in the SRREN

Tackling Energy Security in Europe: the Role of the Electricity Sector

Transport, Energy and CO 2 : Moving Toward Sustainability

CCT2009. Dresden, 20 May Clean Coal Technologies An IEA View on Potentials and Perspectives

CCS as a Critical Part of the Carbon Budget

POLICY BRIEF #26 ENERGY PATHWAYS TOWARD SUSTAINABLE FUTURES TO 2050 AND BEYOND. Developed by: International Institute for Applied Systems Analysis

Horizon 2020 Work Programme :

Global Climate Change and the Unique (?) Challenges Posed by the Transportation Sector

Advancing SDG 7 and its interlinkages with other SDGs

Where do we want to go?

Global Energy Assessment: Exploring pathways to a more sustainable future

Arctic Futures: Possible Scenario Approaches from SRES to RCPs and SSPs

What do we (not) know about Europe s electricity system in 2050?

Integrated Research: Energy and The World in 2050 Collaborative Initiative

Energy for Sustainable Development

Overview of Integrated Assessment Research at IIASA

Interim results IEA technology roadmap: geothermal heat and power. Dr Milou Beerepoot Senior analyst, International Energy Agency

Scenarios for Global CO 2 Emissions

Scenarios and R&D priorities in the 7th Framework Programme

Creating Our Future: Meeting the Electricity Technology Challenge. Steven Specker President and CEO 2009 Summer Seminar August 3-4, 2009

Scenarios: ESA-8. Energy and Emissions Scenarios. Keywan Riahi

Stabilisation and equilibrium global mean temperatures

IEA Technology Roadmap: Delivering sustainable bioenergy - a key role for advanced biofuels

Dr Richard Pike Royal Society of Chemistry

Great transformation towards a (global) low carbon economy

World Oil Demand: Key Trends and Uncertainties

World Energy Outlook Isabel Murray Russia Programme Manager Moscow, 3 February 2010

Electricity and Decarbonization U.S. Perspective

Demography, Migration and Energy Demand. Shonali Pachauri Presented at the 2009 IAEA SF 15 September 2009

TWI2050: Transformation toward Sustainable Future

Transport, Energy and CO2: Moving Toward Sustainability

Energy Technology Perspectives 2006

Silveira, Energy and Climate Studies, KTH 1. Sustainable Development Vision or Fiction? Sustainable Development Vision or Fiction?

Transport, Energy and Environment: Where are We Going and How do We Change it? Nobuo Tanaka Executive Director International Energy Agency

IEA Roadmap Workshop Sustainable Biomass Supply for Bioenergy and Biofuels September 2010

Presentation to the wrap-up of the. COP24, 6 December 2018

Current Trends andfuture Bioenergy Trends

Understanding the Complexity of Technology Transitions

Availability and Costs of Supply-Side Electricity Options

ENERGY TECHNOLOGY ROADMAPS

Anselm Eisentraut Bioenergy Analyst Current status and future outlook for biofuels EBTP 4 th Stakeholder Plenary Meeting

IEA Technology Roadmap: Delivering sustainable bioenergy - a key role for advanced biofuels

Costs and Technology Role for Different Levels of CO 2 Concentration Stabilization

AFTER COP 21 (PARIS): FES 2030 FOSSIL EXIT STRATEGY 2030 FOR EUROPE

International Energy Agency Biofuels & Bioenergy Technology Roadmaps

Mitigation and Adaptation

Climate Change Mitigation Policies Conventional Versus Sustainable Development Scenarios in Emerging Economies

Overview of APERC Activities

Focus Area Energy and Climate. Our Common Future? Pathways to Stefanie Held Director. World Business Council for Sustainable Development

Assessment of Japan s NDC and long-term goal

Energy Technology Perspectives 2017 The Role of CCS in Deep Decarbonisation Scenarios

Overview of IEA Hydropower Implementing Agreement (IEA Hydro)

Long-Term Transport Energy Demand and Climate Policy: Alternative Visions on Transport Decarbonization in Energy-Economy Models

Long-Term Multigas Mitigation Strategies using MESSAGE

The start of a new energy era?

Judi Greenwald Principal Greenwald Consulting

IMAGE model and Roads from Rio+20: pathways to achieve global sustainability goals in 2050

Low Carbon Technology Partnerships initiative. 22 September Led by

Overview of GCAM (Global Change Assessment Model) Sonny Kim JGCRI PNNL/UMD November 4, 2010

CCI/IA Workshop, Snowmass, July 31 st, 2009

On the Economics of Climate Change

Role for coal in a cleaner world

Gas in the context of the SA energy scene and global developments. Dave Collins 29 th May 2012

Energy Technology Perspectives 2014 Harnessing Electricity s Potential

sustainable energy scenarios for the 21 st century

Smart Thermal networks for cities

The IEA CCS Roadmap. Coal is an important part of global energy supply. 17-Mar-10. Brian Ricketts International Energy Agency

Transition to New Technologies (TNT) Program

Transcription:

Can future energy needs be met through more integrated infrastructures? Nebojša Nakićenović International Institute for Applied Systems Analysis xx Technische Universität Wien xx naki@iiasa.ac.at Brainstorming Workshop on Transporting Tens of Gigawatts of Green Power to the Market, Institute for Advanced Sustainability Studies Kleist Villa, Potsdam 12-13 May 2011

Education 100% 90% 80% 70% 60% 50% 40% 30% 20% 10% 0% 1800 1850 1900 1950 2000 2050 2100 2150 Nakicenovic Source: Lutz, 2007 #2 2011

Democratization 100% 90% 80% 70% 60% 50% 40% 30% 20% 10% 0% 1800 1850 1900 1950 2000 2050 2100 2150 Nakicenovic Source: Modelski, 2002 #3 2011

Urbanization 100% 90% 80% 70% 60% 50% 40% 30% 20% 10% 0% 1800 1850 1900 1950 2000 2050 2100 2150 Nakicenovic Source: Grübler, 2007 #4 2011

Urban and Rural Population Projections (in Millions: GEA-H, GEA-M, GEA-L and UN WUP, 2010) 9000 6000 3000 0 1950 1970 1990 2010 2030 2050 2070 2090 2110 World.GEA2H.urb World.GEA2H.rur World.GEA2M.urb World.GEA_M.rur World.GEA2L.urb World.GEA_L.rur World.UN.urb World.UN.rur World.HIST.urb World.HIST.rur

City Hierarchies (Rank Size) 100 2 Chinese Sea Population (Million) 1 10 0 1-1.1 Tokyo London Peking Baghdad Peking AD 900 Hangchow -2.01 1 10 100 1000-1 0 1 2 3 Rank Source: Gruebler et al, 2009

City Hierarchies (Rank Size) 100 2 Chinese Sea Population (Million) 1 10 0 1-1.1 Tokyo London Peking Baghdad Peking Hangchow AD 1250.01-2 1 10 100 1000-1 0 1 2 3 Rank Source: Gruebler et al, 2009

City Hierarchies (Rank Size) 100 2 Chinese Sea Population (Million) 1 10 0 1-1.1 Tokyo London Peking Baghdad Peking AD 900 Hangchow AD 1500-2.01 1 10 100 1000-1 0 1 2 3 Rank Source: Gruebler et al, 2009

City Hierarchies (Rank Size) 100 2 Chinese Sea Population (Million) 1 10 0 1-1.1 Tokyo London Peking Baghdad Constantinople Peking AD 900 AD 1700 Hangchow -2.01 1 10 100 1000-1 0 1 2 3 Rank Source: Gruebler et al, 2009

City Hierarchies (Rank Size) 100 2 Chinese Sea Population (Million) 1 10 0 1-1.1 Tokyo London Peking Baghdad AD 1800 Peking AD 900 Hangchow.01-2 1 10 100 1000-1 0 1 2 3 Rank Source: Gruebler et al, 2009

City Hierarchies (Rank Size) 100 2 Chinese Sea Population (Million) 1 10 0 1-1.1 Tokyo London AD 1900 Peking Baghdad Peking AD 900 Hangchow -2.01 1 10 100 1000-1 0 1 2 3 Rank Source: Gruebler et al, 2009

City Hierarchies (Rank Size) Population (Million) 100 2 1 10 0 1-1.1 Chinese Sea Tokyo New York AD 1950 London Peking Baghdad Peking AD 900 Hangchow -2.01 1 10 100 1000-1 0 1 2 3 Rank Source: Gruebler et al, 2009

City Hierarchies (Rank Size) Population (Million) 100 2 1 10 0 1-1.1 Chinese Sea Tokyo AD 2000 London Peking Baghdad Peking AD 900 Hangchow -2.01 1 10 100 1000-1 0 1 2 3 Rank Source: Gruebler et al, 2009

City Hierarchies (Rank Size) 100 2 Chinese Sea Population (Million) 1 10 0 1-1.1 Tokyo London Peking Baghdad Peking AD 900 Hangchow -2.01 1 10 100 1000-1 0 1 2 3 Rank Source: Gruebler et al, 2009

City Hierarchies (Rank Size) 100 2 Chinese Sea Population (Million) 1 10 0 1-1.1 Tokyo London Peking Baghdad Peking AD 900 Hangchow -2.01 1 10 100 1000-1 0 1 2 3 Rank Source: Gruebler et al, 2009

Confronting the Challenges of Energy for Sustainable Development: The Role of Scientific and Technical Analysis IIASA International Institute for Applied Systems Analysis and its international partners present www.globalenergyassessment.org

www.globalenergyassessment.org Towards a more Sustainable Future! Energy is a crucial development goal for responding to challenges in the 21st century! Universal access is a pre-condition for overcoming poverty and feasible if all stakeholders work together.! Energy transformation will bring multiple cobenefits for health, security, climate change! Financing requirements are huge but achievable with right and sustained policies

Night Lights 2000 Nakicenovic Source: After SRES, 2000 #18 2011

Night Lights IIASA A2r Scenario SRES A2 2070 Nakicenovic Source: After SRES, 2000 #19 2011

Global Energy Transformations! Access to energy and ecosystem services (a prerequisite for MDGs & wellbeing)! Vigorous decarbonization for mitigating climate change brings multiple co-benefits! Energy transformations require R&D and rapid technology diffusion & deployment! Sustained energy investments are needed and would result in multiple co-benefits Nakicenovic #20 2011

Mapping Energy Access Final energy access (non-commercial share) in relation to population density Billions of people: Abject poverty: 1.3 Poor: 0.6 Less poor: 1.4 Middle class: 1.6 Rich: 1.2 3.3 2.8 Source: Gruebler et al, 2009 #21

Global Carbon Reservoirs Atmosphere 850 GtC Biomass ~500 GtC Unconventional. Gas ~1000 GtC N. Gas ~250 GtC Oil ~250 GtgC GtC UnconventonalOil ~1150 GtgC Soils ~1,500 GtC Coal ~ 12,000 GtC Unconventional Hydrocarbons 15,000 to 40,000 GtC 14

Europe Population vs. Energy Demand Density WEU: 21% of demand below renewable density threshold EEU: 34% of demand below renewable density threshold

Global Energy Transformations! Access to energy and ecosystem services (a prerequisite for MDGs & wellbeing)! Vigorous decarbonization for mitigating climate change brings multiple co-benefits! Energy transformations require R&D and rapid technology diffusion & deployment! Sustained energy investments are needed and would result in multiple co-benefits Nakicenovic #26 2011

Global Carbon Emissions #27

Global Primary Energy EJ 1200 1000 800 600 Other renewables Nuclear Gas Oil Coal Biomass Commercial aviation" Nuclear energy Microchip" 400 200 Steam engine" Electric motor" Gasoline engine" Vacuum tube" Television" Renewables Nuclear Gas Oil Coal 0 Biomass 1850 1900 1950 2000 2050 #28

Global Primary Energy Efficiency EJ 1200 1000 800 600 Other renewables Nuclear Gas Oil Coal Biomass Commercial aviation" Nuclear energy Microchip" 400 200 Steam engine" Electric motor" Gasoline engine" Vacuum tube" Television" Renewables Nuclear Gas Oil Coal 0 Biomass 1850 1900 1950 2000 2050 #29

Global Primary Energy Efficiency EJ 1200 1000 800 600 Other renewables Hydro Nuclear Gas Oil Coal Biomass Commercial aviation" Nuclear energy Microchip" 400 200 Steam engine" Electric motor" Vacuum Gasoline tube" engine" Television" 0 1850 1900 1950 2000 2050 MESSAGE GEA Efficiency MESSAGE GEA Mix MESSAGE GEA Supply IMAGE RCP 3 PD REMIND RECIPE REMIND Adam MERGE ETL MARKAL ETP Blue POLES Adam MESSAGE WEC C1 MESAP energy[r]evolution 2008 MESAP energy[r]evolution 2010 MESAP advanced revolution 2010 WGBU #30

Global Primary Energy Efficiency EJ 1200 1000 800 600 Other renewables Hydro Nuclear Gas Oil Coal Biomass Commercial aviation" Nuclear energy Microchip" Advanced transportation Conventional transportation 400 200 Steam engine" Electric motor" Vacuum Gasoline tube" engine" Television" 0 1850 1900 1950 2000 2050 Unrestricted Portfolio No Nuclear No BioCCS No Sinks Limited Bio-energy Limited Renewables No CCS No Nuclear & CCS Lim. Bio-energy & Renewables No BioCCS, Sink & lim Bio-energy Unrestricted Portfolio No Nuclear No BioCCS No Sinks Limited Bio-energy Limited Renewables No CCS No Nuclear & CCS Lim. Bio-energy & Renewables No BioCCS, Sink & lim Bio-energy #31

Final Energy Transformations 100% On - site generation Final&energy&share&(percent%) 80% 60% 40% 20% 0% Grids (gas, district heat, electricity, hydrogen) Liquids (oil products, biofuels, other liquids) Solids (coal, biomass) GEA - E GEA - S #32

Global Energy Transformations! Access to energy and ecosystem services (a prerequisite for MDGs & wellbeing)! Vigorous decarbonization for mitigating climate change brings multiple co-benefits! Energy transformations require R&D and rapid technology diffusion & deployment! Sustained energy investments are needed and would result in multiple co-benefits Nakicenovic #33 2011

A Vision of a Future Energy System Nakicenovic Source: EU, 2002 # # 2010

Example of savings by reconstruction Before reconstruction Reconstruction according to the passive house principle over 150 kwh/(m²a) -90% 15 kwh/(m²a) Source: Jan Barta, Center for Passive Buildings, www.pasivnidomy.cz, EEBW2006 #35

CITARO H 2 Fuel Cell Bus Nakicenovic # # 2010

Area Occupied by Various Transport Modes Nakicenovic Source: WBCSD, 2005 # # 2010

Energy SuperGrid and MagLev Trains Source: EPRI Nakicenovic # # 2010

Potential Synergies between New Energy and Transport Infrastructures: Asian Supergrid Super Cables Power lines Electric Power Research institute MAGLEV Source: Y. Yamagata, NIES. 2010

Energy Innovation and Investments Worldwide, Billion $ innovation market diffusion (RD&D) formation End-use & efficiency >>8 1 5 8 300-3500 15 Fossil fuel supply >12 2 >>2 9 200-550 16 Nuclear >10 3 0 10 3-8 17 Renewables >12 4 ~20 11 >20 18 Electricity (Gen+T&D) >>1 5 ~100 12 450-520 16 Other* and unspecified >>4 6 <15 13 n.a. Total >50 7 <150 14 1000-<5000 19 Notes: * hydrogen, fuel cells, other power & storage technologies, basic energy research #40

Global Energy Transformations! Access to energy and ecosystem services (a prerequisite for MDGs & wellbeing)! Vigorous decarbonization for mitigating climate change brings multiple co-benefits! Energy transformations require R&D and rapid technology diffusion & deployment! Sustained energy investments are needed and would result in multiple co-benefits Nakicenovic #41 2011

Co-Benefits of Energy Investments

Co-Benefits of Energy Investments

Source: David Sanborn Scott, 2004 #44 44

Geoengineering Options Nakicenovic Source: Matthews, 2001 # # 2010