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Contents: What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse

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Presentation on theme: "Contents: What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse"— Presentation transcript:

1 Carbon Reduction Potential and Economic Impacts in Japan: Application of AIM
Contents: What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion Toshihiko Masui National Institute for Environmental Studies Workshop on Climate Policy and Energy Modeling International Trade Center, Taipei, Taiwan October 11-12, 2004

2 Outline of AIM What’s AIM? CO2 reduction in Japan Model analysis
AIM/Enduse AIM/Top-down AIM/Material Conclusion AIM, NIES

3 CO2 reduction target in Japan
After Russia announced ratification of Kyoto Protocol, GHGs emissions reduction target becomes a reality! What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion AIM, NIES

4 CO2 reduction target in Japan
Kyoto Protocol In Japan, GHG emissions in the 1st commitment period ( ) should be reduced by 6% of those in 1990. New Climate Change Policy Programme (2002, Gov. of Japan) CO2 emissions from energy use: ±0% Reduction by innovative technologies and change of lifestyle: -2% Others CO2 emissions from non-energy use, methane emissions, and nitrous oxide emissions: -0.5% Emissions of HFCs, PFCs and SF6: +2.0% The use of Sinks: -3.9% What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion Total 2% of CO2 reduction is assumed to be target. AIM, NIES

5 Model analysis on CO2 reduction policy
Model approaches Bottom-up approach: represent reality Top-down approach: represent consistency Mixture of these 2 approaches; Bottom-up (technology) AIM/Enduse model: Potential CO2 reduction and carbon tax & subsidy to technologies Top-down (economic theory) AIM/Top-down model: International competitiveness of energy intensive industries AIM/Material model: Detailed economic impact in Japan What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion AIM, NIES

6 Model analysis on CO2 reduction policy
What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion AIM/Material Prod. sector Household Pollution Man. sector market Government Capital Labor Pollution Energy Final cons. Intermediate Recycle Produced commodities CO2 Env. capital Env. Industry Env. investment Foreign Trade AIM/Enduse Energy Energy technology Energy service Oil Coal Gas Solar Electricity etc. Blast furnace Power generation Air conditioner Boiler Automobile etc. Crude steel products Sectoral GDP Cooling demand Lighting Transportation etc. Energy consumption CO2 emissions Technology selection demands Energy database Energy type Energy price Energy constraints CO2 emission factor Technology database Technology price Supplied service amounts Technology share Lifetime Socioeconomic scenario Population growth Economic growth Industrial structure Employment Lifestyle International price and trade Additional investment for energy saving Energy efficiency improvement AIM/Top-down Fossil fuel Electricity Non-energy goods CO2 Production sector Government Household Investment Production factor Rent Consumption AIM, NIES

7 Model analysis on CO2 reduction policy -Bottom-up model approach-
What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion AIM/Material Prod. sector Household Pollution Man. sector market Government Capital Labor Pollution Energy Final cons. Intermediate Recycle Produced commodities CO2 Env. capital Env. Industry Env. investment Foreign Trade AIM/Enduse Energy Energy technology Energy service Oil Coal Gas Solar Electricity etc. Blast furnace Power generation Air conditioner Boiler Automobile etc. Crude steel products Sectoral GDP Cooling demand Lighting Transportation etc. Energy consumption CO2 emissions Technology selection demands Energy database Energy type Energy price Energy constraints CO2 emission factor Technology database Technology price Supplied service amounts Technology share Lifetime Socioeconomic scenario Population growth Economic growth Industrial structure Employment Lifestyle International price and trade Additional investment for energy saving Energy efficiency improvement AIM/Top-down Fossil fuel Electricity Non-energy goods CO2 Production sector Government Household Investment Production factor Rent Consumption AIM, NIES

8 Model analysis on CO2 reduction policy -Bottom-up model approach-
AIM/Enduse model Based on socioeconomic scenario, energy devices and energy types are selected to minimize total cost. Messages from AIM/Enduse model CO2 reduction potential Necessary carbon tax rate to achieve Kyoto Protocol Effective policy mix to lower carbon tax rate What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion AIM, NIES

9 Model analysis on CO2 reduction policy -Bottom-up model approach-
Energy Energy technology Energy service What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion Oil Coal Gas Solar Electricity etc. Blast furnace Power generation Air conditioner Boiler Automobile etc. Crude steel products Sectoral GDP Cooling demand Lighting Transportation etc. Energy consumption CO2 emissions Technology selection Energy service demands Energy database Energy type Energy price Energy constraints CO2 emission factor Technology database Technology price Energy consumption Supplied service amounts Technology share Lifetime Socioeconomic scenario Population growth Economic growth Industrial structure Employment Lifestyle Structure of AIM/Enduse model AIM, NIES

10 Model analysis on CO2 reduction policy -Bottom-up model approach-
Examples of socioeconomic scenarios What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion 2000 2010 2012 Real GDP growth rate %/year 0.9 1.9 Raw material production Crude steel mil. ton 106.9 95.9 94.8 Cement 79.3 70.3 69.8 Ethylene 7.6 6.7 Paper & board 31.8 36.0 36.7 Number of households mil. 46.8 49.1 49.2 Floor space in com. sector mil. m2 1,655 1,793 1,844 Passenger transportation tri.*person*km 1.42 1.51 1.53 Freight transportation tri.*ton*km 0.56 0.57 Nuclear power generation (new construction after 2002) Plants － 8 AIM, NIES

11 Model analysis on CO2 reduction policy -Bottom-up model approach-
What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion Tech. fix Cheapest choice C-tax: 3,000 JPY/tC 30,000 JPY/tC 45,000 JPY/tC CO2 emissions trajectories by scenarios AIM, NIES

12 Model analysis on CO2 reduction policy -Bottom-up model approach-
What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion Marginal cost [\/tC] Tax rate Present Target Emissions Expenditure for countermeasures Amount of tax payment Marginal cost [\/tC] Tax rate Subsidy Present Target Emissions Marginal cost [\/tC] Present Target Emissions 45,000 JPY/tC 3,400 JPY/tC AIM, NIES

13 Model analysis on CO2 reduction policy -Bottom-up model approach-
Carbon tax rate and required additional investments for reducing CO2 emissions in Japan What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion sector Subsidized measures and devices Add. investment Industrial sector Boiler conversion control, High performance motor, High performance industrial furnace, Waste plastic injection blast furnace, LDF with closed LDG recovery, High efficiency continuous annealing, Diffuser bleaching device, High efficiency clinker cooler, Biomass power generation 101.3 Residential sector High efficiency air conditioner, High efficiency gas stove, Solar water heater, High efficiency gas cooking device, High efficiency television, High efficiency VTR, Latent heat recovery type water heater, High efficiency illuminator, High efficiency refrigerator, Standby electricity saving, Insulation 353.9 Commercial sector High efficiency electric refrigerator, High efficiency air conditioner, High efficiency gas absorption heat pump, High efficiency gas boiler, Latent heat recovery type boiler, Solar water heater, High efficiency gas cooking device, High frequency inverter lighting with timer, High efficiency vending machine, Amorphous transformer, Standby electricity saving, Heat pump, Insulation 194.5 bil. JPY / year AIM, NIES

14 Model analysis on CO2 reduction policy -Bottom-up model approach-
Carbon tax rate and required additional investments for reducing CO2 emissions in Japan (continued) What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion sector Subsidized measures and devices Add. investment Transportation sector High efficiency gasoline private car, High efficiency diesel car, Hybrid commercial car, High efficiency diesel bus, High efficiency small-sized truck, High efficiency standard-sized track 106.6 Forest management Plantation, Weeding, Tree thinning, Multilayered thinning, Improvement of natural forest 195.7 Total 952.0 bil. JPY / year Tax rate to appropriate required subsidiary payments (JPY/tC) 3,433 AIM, NIES

15 Additional investment for energy saving Energy efficiency improvement
Model analysis on CO2 reduction policy -Global top-down model approach- What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion AIM/Material Prod. sector Household Pollution Man. sector market Government Capital Labor Pollution Energy Final cons. Intermediate Recycle Produced commodities CO2 Env. capital Env. Industry Env. investment Foreign Trade AIM/Enduse Energy Energy technology Energy service Oil Coal Gas Solar Electricity etc. Blast furnace Power generation Air conditioner Boiler Automobile etc. Crude steel products Sectoral GDP Cooling demand Lighting Transportation etc. Energy consumption CO2 emissions Technology selection demands Energy database Energy type Energy price Energy constraints CO2 emission factor Technology database Technology price Supplied service amounts Technology share Lifetime Socioeconomic scenario Population growth Economic growth Industrial structure Employment Lifestyle International price and trade Additional investment for energy saving Energy efficiency improvement AIM/Top-down Fossil fuel Electricity Non-energy goods CO2 Production sector Government Household Investment Production factor Rent Consumption AIM, NIES

16 Model analysis on CO2 reduction policy -Global top-down model approach-
AIM/Top-down model Global general equilibrium model with multi regions and multi sectors Messages from AIM/Top-down model International competitiveness Effectiveness of emission trading Impact of US climate policy keep original policy or ratify Kyoto Protocol What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion AIM, NIES

17 Model analysis on CO2 reduction policy -Global top-down model approach-
Overview of AIM/Top-down model Data from GTAP (ver.3) and energy balance table (IEA) Computable general equilibrium model with recursive dynamics CO2 emissions from fossil fuels Time period: Region: 21 Sector: 8 What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion AIM, NIES

18 Model analysis on CO2 reduction policy -Global top-down model approach-
What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion Model structure AIM, NIES

19 Model analysis on CO2 reduction policy -Global top-down model approach-
What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion Production structure AIM, NIES

20 Model analysis on CO2 reduction policy -Global top-down model approach-
Classification of sector What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion Y Agricultures, other manufactures and services COL Coal CRU Crude CRU GAS Natural gas EGW Electricity OIL Petroleum and coal products (refined) EIS Energy intensive products TRN Transport industries CGD Savings good AIM, NIES

21 Model analysis on CO2 reduction policy -Global top-down model approach-
Definition of region What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion JPN Japan CHN China AUS Australia IDI India NZL New Zealand IDN Indonesia USA United States of America MYS Malaysia CAN Canada PHL Philippines EUR Western Europe THA Thailand TWN Taiwan LAM Latin America KOR Republic of Korea MEA Middle East and North Africa HKG Hong Kong SSA Sub Saharan Africa SGP Singapore ROW Rest of World EEU+ CIS Eastern Europe + Commonwealth of Independent States AIM, NIES

22 Scenarios for analysis Scenarios reducing CO2 emissions
Model analysis on CO2 reduction policy -Global top-down model approach- Scenarios for analysis What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion Climate policy in US and Australia Emission trade Japan Others BaU No CO2 reduction Scenarios reducing CO2 emissions Scenario 1 Keep original policy No trade Scenario 2 1.6% of emissions in 1990 Half of reduction Scenario 3 Ratify Kyoto in 2008 Scenario 4 Half of reduction AIM, NIES

23 Model analysis on CO2 reduction policy -Global top-down model approach-
What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion Price of carbon tax in 2010 AIM, NIES

24 GDP change in 2010 compared to BaU
Model analysis on CO2 reduction policy -Global top-down model approach- What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion GDP change in 2010 compared to BaU AIM, NIES

25 Change of production in each sector and GDP in Japan (2010)
Model analysis on CO2 reduction policy -Global top-down model approach- What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion Change of production in each sector and GDP in Japan (2010) AIM, NIES

26 Change of energy intensive industry production in 2010
Model analysis on CO2 reduction policy -Global top-down model approach- What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion Change of energy intensive industry production in 2010 compared to BaU AIM, NIES

27 Additional investment for energy saving Energy efficiency improvement
Model analysis on CO2 reduction policy -Country top-down model approach- What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion AIM/Material Prod. sector Household Pollution Man. sector market Government Capital Labor Pollution Energy Final cons. Intermediate Recycle Produced commodities CO2 Env. capital Env. Industry Env. investment Foreign Trade AIM/Enduse Energy Energy technology Energy service Oil Coal Gas Solar Electricity etc. Blast furnace Power generation Air conditioner Boiler Automobile etc. Crude steel products Sectoral GDP Cooling demand Lighting Transportation etc. Energy consumption CO2 emissions Technology selection demands Energy database Energy type Energy price Energy constraints CO2 emission factor Technology database Technology price Supplied service amounts Technology share Lifetime Socioeconomic scenario Population growth Economic growth Industrial structure Employment Lifestyle International price and trade Additional investment for energy saving Energy efficiency improvement AIM/Top-down Fossil fuel Electricity Non-energy goods CO2 Production sector Government Household Investment Production factor Rent Consumption AIM, NIES

28 Model analysis on CO2 reduction policy -Country top-down model approach-
AIM/Material model Based on technology and international trade assumption, economic impacts by carbon reduction in Japan can be simulated. Messages from AIM/Material model Impact on economy in Japan Production, employment, ... Economic impact on specific sectors What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion AIM, NIES

29 Model analysis on CO2 reduction policy -Country top-down model approach-
Features of AIM/Material model Model: Computable general equilibrium model Country: Japan Time period: 1995 to 2012 (recursive dynamic) Activity: 41 sectors and 49 commodities Solid waste: 18 waste types of industrial waste and 8 types of municipal waste. In this analysis, the constraint on solid waste is not taken into account. Other features Both economic balance and material balance are kept. Energy efficiency improvement is given from solution of AIM/End-use model Scenarios: Reference Case: Without CO2 constraints. Tax case: CO2 reduction by only introducing carbon tax. Tax + subsidy case: CO2 reduction by introducing carbon tax with subsidy for energy saving equipment. What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion AIM, NIES

30 Model analysis on CO2 reduction policy -Country top-down model approach-
produced commodity What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion pollution management recycle abroad pollution CO2 import export production sector market energy intermediate CO2 environmental industry/ investment env. capital labor energy intermediate CO2 capital labor household government energy final demand Structure of AIM/Material AIM, NIES

31 Sectors and commodities
Model analysis on CO2 reduction policy -Country top-down model approach- Sectors and commodities What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion AIM, NIES

32 Future GDP estimated from AIM/Material model
Model analysis on CO2 reduction policy -Country top-down model approach- What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion Future GDP estimated from AIM/Material model AIM, NIES

33 Carbon emissions in Japan
Model analysis on CO2 reduction policy -Country top-down model approach- What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion Carbon emissions in Japan AIM, NIES

34 GDP change compared to the reference case
Model analysis on CO2 reduction policy -Country top-down model approach- What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion GDP change compared to the reference case AIM, NIES

35 Model analysis on CO2 reduction policy -Country top-down model approach-
What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion Activity Change of each sector in the first commitment period (compared to reference case) AIM, NIES

36 Number of employment in the first commitment period
Model analysis on CO2 reduction policy -Country top-down model approach- What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion Number of employment in the first commitment period AIM, NIES

37 Conclusion In Japan, even existing or practical technologies can reduce the CO2 emissions to the Kyoto Target. The necessary carbon tax rate will be 45,000 yen/tC. When the tax revenue is utilized for subsidy, the carbon tax rate will be 3,400 yen/tC. In this case, the GDP loss will be 0.061% comparing to reference case. Although activities of thermal power generation and fossil fuel production sectors will decrease severely by introducing carbon tax, energy intensive industries such as steel, paper etc. will not be damaged so much. Because of the subsidy for energy saving devices, production and employment in the manufacture of the energy saving devices will increase. What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion AIM, NIES

38 Criticism against simulation results from Industries
Japanese economy will suffer the severe damage from the carbon tax? Validity of assumptions: if the carbon tax is introduced in Japan, many manufacturing factories will move out of Japan to avoid the carbon tax payment. Activities of Japanese industries, especially energy intensive industries, in the international market will degrade when the carbon tax is introduced? Subsidy is not a good policy option. How to select the appropriate countermeasures? Transaction cost of carbon tax and subsidy policy will become very high. Subsidy to countermeasures to reduce the CO2 emissions can be compensated for other tax such as the consumption tax? When subsidy is introduced, the more large scale devices will be consumed (rebound effect)? Some criticisms are for policy making itself, and some are qualitative. What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion AIM, NIES

39 For more practical simulation
Relationship between existing energy tax and proposed carbon tax Tax cut for the sectors suffering from carbon tax (steel etc.) Policy mix -Combination of carbon tax, regulation, voluntary plan, ... Kyoto Mechanism Revision of assumptions: Economy in Japan will recover rapidly. Time until 1st commitment period becomes shorter. What’s AIM? CO2 reduction in Japan Model analysis AIM/Enduse AIM/Top-down AIM/Material Conclusion AIM, NIES

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