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M d li f U b E d CO2 f B ijiModeling for Urban Energy and CO2 for Beijing
Jiang Kejun
Energy Research Institute
International Symposium “R li i L C b Ci i B id i S i d P li ”“Realizing Low Carbon Cities: Bridging Science and Policy”
February 16, 2009 Nagoya, Japan
1ERI, ChinaERI, China
Targeted Province
• Guangdong • Jiangsu • Shanghai • Chongqing• Chongqing • Tianjin • ShanxiShanxi • Shandong• Guangxi• Ningxia
2
Energy Per Capita, tceEnergy Per Capita, tce
67
3456
tce
012
g u i g n i g i a
Guang
dong
Jiang
suSha
ngha
iChon
gqing
Tianjin
Shanx
iSha
ndon
gGua
ngxi
Ningxia
Provinces
3
CO2 emission, mt-CO2
400500600
2
200300400
Mt-C
O2
0100
ong gsu hai
ing njin nxi
ong gxi
xia
Guang
don
Jiang
sSha
ngha
Chongq
in
Tianj
Shanx
Shand
ong
Guang
xNingx
i
P iProvinces
4
CO2 emission per capita, t-CO2
15
20
5
10
15
t-CO
2
0
5
g u ai g in xi g xi a
Guang
dong
Jiang
suSha
ngha
iChon
gqing
Tianjin
Shanx
iSha
ndon
gGua
ngxi
Ningxia
Provinces
5
Tire 1 indicators for LCE
Classification Indicators Note
Tire 1 indicators for LCE
Emissionindicators
GHG emissions Setting up emissiontarget
GHG emission per GDPIntensity With similar targetGHG emission per GDPIntensityindicators
With similar targetas energy intensitytarget in China ’ s
GHG emission per capitaShare of investment onLCE
11th Five PlanFinancialindicators
Government inputtogether with otherLCE
Total investment on LCEGHG Emission of sectors
indicators together with otherinvestment
Sector indicatorsGHG emission perGHG Emission per outputInvolvement from publicBehavior
6
Involvement from publicGovernment effort
Behaviorindicators
Tire 2 indicators for LCEClassification Indicators Note
Share of public transportNon‐mobility friendly transport Share of road with
Transportindicators y y p
nice bicycle lane,pedestrian side
Low carbon life style: Low carbona ai
Household Share of familye i te a Locampaign
Share of renewable energyShare of energy saving buildingShare of buildings with solar
register as Lowcarbon life style
Building
Share of high efficiency lightingShare of renewable energy intotal energyShare of renewable energy in
Low carbontechnologies
Share of renewable energy inpower generationShare of advanced technologiesin major industryOther technologiesEmission/energy use perEmission/energy use per outputTechnology penetration rate
Industry Sector
7
Technology penetration rateRate of recycleInvestment on energyefficiency/emission reduction
Energy intensity targetEnergy intensity target
ReductionIntensity tce/10000yuan Reduction2005 2010 %
Guangdong 0.79 0.66 16
Intensity, tce/10000yuan
Jiangsu 0.92 0.74 20Shanghai 0.88 0.7 20Chongqing 1.42 1.14 20gq gTianjin 1.11 0.89 20Shanxi 2.95 2.21 25Sh d 1 28 1 22Shandong 1.28 1 22Guangxi 1.22 1.04 15Ningxia 4.14 3.31 20
8
北京
50
60
Energy Use in Beijing
20
30
40
50
Mtce
0
10
20
1996 1997 1998 1999 2000 2001 2002 2003 2004 20051996 1997 1998 1999 2000 2001 2002 2003 2004 2005
Electricity3%
Energy Mix in Beijing, 2005
Primaryenergy mix in Beijing in 2005Coal21%
Oil4%N.Gas
N.Gas9%
Electricity10%
Primary energy mix in Beijing in 2005
4%0%
Heat72%
Coal47%
OilOil34%
Framework of IPAC
E i t i d t
IPAC-SGM
Energy demand and supplyPrice/investmentEconomic impactMedium/long-term analysis
IPAC-AIM/MATERIAL
Environment industryPollutant emissionMedium/long-term analys
IPAC-EmissionIPAC-TIMER
Medium/long term analysis
Energy demand and supplFull range emissionPrice resource technolog
Energy demand and supplyPrice/investment IPAC EmissionIPAC TIMER Price, resource, technolog
Medium-long term analysisEconomic impact
Medium/long-term analysis
IPAC/Tech
Medium/short term
Technology developmentEnvironment impactTechnology policy
IPAC-AIM/techIPAC/AIM-LocalanalysisTechnology assessmentDetailed technology Region analysis
Medium/short analysis gyflowMedium/short analysis
Energy demand and supplyTechnology policy AIM-air IPAC-health
ERI, ChinaERI, China
Population Scenario in Beijing
2000 2005 2010 2020 2030Total population mi l l i om 12.78 15.38 17.10 18. 1 18. 5Share of City 0.84 83.6% 87.0% 90.0% 93.0%City Population mi l l i om 10.69 12.86 14.88 16.26 17.22y p mi l l i omRural population 2.09 2.52 2.22 1.81 1.30Registed population 11.80 12.40 13 13.5City HH 3.91 4.88 5.72 6.38 6.89Rural HH 0.76 0.98 0.87 0.71 0.52Number of HH mi l l i om 278.62 4.51 4.79 5.10 5.40City HH mi l l i om 2.75 3.34 3.67 4.03 4.37Rural HH 1. 224 1.17 1.12 1.07 1.03City population 8.80 9.55 10.27 10.94Rural population 3.00 2.85 2.73 2.57Share of city in registed 0.75 0.77 0.79 0.81Person in HH city 2.73 2.63 2.60 2.55 2.5Person in HH rural 2.76 2.56 2. 55 2. 54 2. 5
GDP in Beijing
7000
8000
4000
5000
6000
n Yu
an
Tertiary
2000
3000
4000
Billion Secondary
Primary
0
1000
2000 2005 2010 2020 20302000 2005 2010 2020 2030
GDP Per Capita in Beijing
50.0
60.0
p j g
40.0
50.0
US$
20.0
30.0
1000
U
0.0
10.0
2000 2005 2010 2020 2030
Parameter of Urban HouseholdS i U i t S i
2020 2030
Househol d, mi l l i on 4.03 4.37
Shar e of HH wi t h space heat i ng 100% 100%
I ndex of space heat i ng i nt ensi t y 1.35 1.5
Ser vi ce Uni t Ser vi ce
I ndex of space heat i ng i nt ensi t y,2000=1I ndex of space heat i ng t i me, 2000=1 1.33 1.36
Shar e of bui l di ng wi t h 50%ef f i ci ency st andar d
20% 45%
O hi f Ai C di t i 130 180Owner shi p of Ai r Condi t i oner 130 180
I ndex of Ai r condi t i oner i nt ensi t y,2000=1
1.3 1.4
I ndex of ai r condi t i onerut i l i zat i on t i me, 2000=1
1.6 1.8
100 120Owner shi p of Ref r i ger at or per 100HH 100 120
Aver age space of r ef r eger et or L 250 310
Ef f i ci ency of Ref r eger et or kWh/day 0.8 0.8
Owner shi p of washi ng machi ne per 100HH 100 100
t i mes t o use washi ng machi ne per 5.4 8t i mes t o use washi ng machi ne perweek
5.4 8
Owner shi p of TV per 100HH 180 220
Aver age Capaci t y of TV 320W 300W
Hour s per TV per day 3.5 3.2
Penet r at i on r at e of CFL 100% 100%
Li ght per HH 14 21
Owner shi p of Wat er heat er per 100HH 100% 100%
Owner shi p of Sol ar heat er per 100HH 18% 25%
O hi f El t i ki 100HH 130 140Owner shi p of El ect r i c cooki ng per 100HH 130 140
Hour s per day of el ect r i c cooki ng Mi nut es 12 30
Capaci t y of ot her el ect r i cappl i cance W
1500W 1800W
Hour s of ot her el ect r i c appl i ance Mi nut es 50 80
2050年的低碳住宅舒适和节能
太阳能利用
光伏电池 生态生活教育
(25-47% 的家庭拥有屋顶光伏电池,转换效率接近30% 屋顶植被
减少10-20% 能源需求
高效照明【如 LED照明】
转换效率接近30%
太阳热利用
屋顶植被
能源检测系统
普及率: 20-60%(目前 6%)
减少50%照明需求,普及率 100%
能源检测系统(家用电器)
减少 60% 采暖需求,普及率70%
超高效空调
高效绝热
COP =8, 普及率 100%
超高效空调
热泵采暖燃料电池
普及率 0-20%COP=5普及率 30-70%
普及率 0 20%
待机电源耗电
降低1/3向公众提供经济和环境
降低1/3 ,普及率100%
5
高效家用电器减少能源需求,支持舒适和安全生活方式
信息促使大家成为低碳消费
- “领跑者项目已经实现
日本领跑者项目: 提高能源效率领跑者项目已经实现-刺激竞争和革新,-促进现有节能技术普及增加经济竞争力-增加经济竞争力
-创造了“双赢”局面,进入良性循环.
651.3 941.6 331.5Overall electricity consumption per
refrigerator (kWh)651.3 941.6 331.5
Overall electricity consumption per
refrigerator (kWh)
图 冰箱效率
Annual electricity consumption
per volume (kWh/L)
refrigerator (kWh)
Annual electricity consumption
per volume (kWh/L)
refrigerator (kWh)
p ( )
Internal cubic volume (L)
p ( )
Internal cubic volume (L)
(Source) JEMA (2002)1981 1991 20011981 1991 2001
Identify efficiency promised technologies: fully used by 2020
Sector Technologies Steel Industry Large size equipment (Coke Oven, Blast furnace, Basic oxygen
furnace ,etc.), Equipment of coke dry quenching, Continuous casting himachine, TRT
Continuous rolling machine, Equipment of coke oven gas, OH gas and BOF gas recovery , DC-electric arc furnace
Chemical Industry Large size equipment for Chemical Production, Waste Heat Recover System, Ion membrane technology, Existing Technology Improving
Paper Making Co-generation System, facilities of residue heat utilization, Black liquor recovery system, Continuous distillation system
Textile Co-generation System, Shuttleless loom, High Speed Printing and Dyeing
Non-ferrous metal Reverberator furnace, Waste Heat Recover System, QSL for lead and , y , Qzinc production
Building Materials dry process rotary kiln with pre-calciner, Electric power generator with residue heat, Colburn process, Hoffman kiln, Tunnel kiln
Machinery High speed cutting, Electric-hydraulic hammer, Heat Preservation FurnaceFurnace
Residential Cooking by gas, Centralized Space Heating System, Energy Saving Electric Appliance, High Efficient Lighting
Service Centralized Space Heating System, Centralized Cooling Heating System, Co-generation System, Energy Saving Electric Appliance, High Efficient LightingHigh Efficient Lighting
Transport Diesel truck, Low Energy Use Car, Electric Car, Natural Gas Car, Electric Railway Locomotives
Common Use Technology
High Efficiency Boiler, FCB Technology, High Efficiency Electric Motor S d Adj t bl M t C t if l El t i F E S iSpeed Adjustable Motor, Centrifugal Electric Fun, Energy Saving Lighting
Unit energy use for major industrial products, Policy scenariosBy 2030, best efficiency in the world
Uni t 2005 2020 2030 2040 2050St eel Kgce/t 760 650 564 554 545C Kgce/t 132 101 86 81 77Cement Kgce/t 132 101 86 81 77
Gl assKgce/WeightCases 24 18 14. 5 13. 8 13. 1
B i k Kgce/万块 685 466 433 421 408Br i ck Kgce/万块 685 466 433 421 408Ammoni a Kgce/t 1645 1328 1189 1141 1096Et hyl ene Kgce/t 1092 796 713 693 672S d A h Kgce/t 340 310 290 284 279Soda Ash Kgce/t 340 310 290 284 279Casut i c Kgce/t 1410 990 890 868 851Cal ci um car bi de Kgce/t 1482 1304 1215 1201 1193C Kgce/t 1273 1063 931 877 827Copper Kgce/t 1273 1063 931 877 827Al umi num kWh/t 14320 12870 12170 11923 11877Paper Kgce/t 1047 840 761 721 686El t i i t f i l f l Gce/kWh 350 305 287 274 264El ect r i ci t y f ossi l f uel Gce/kWh 350 305 287 274 264
Car Ownership
US600
CanadaItaly
Sweden500 明显的左
移效应
FranceUK
Spain
Sweden
400 北京2020
台湾
Spain300
Beijing
Greece200中国2030汇率法
中国2030PPP
法
j g2007
杭州2007
东营2005
India 韩国
100法
新加坡香港
上海2007
00 5,000 10,000 15,000 20,000 25,000
GDP per Capita (1997 $ PPP)Source: RIIA, 1997 Chatham House Forum
Strategies and Environmental ImpactStrategies and Environmental Impactg pg pEnvironmental burden per capita(i.e. CO2 emissionEnvironmental burden per capita(i.e. CO2 emissionAir pollution emission, PM, NOx, CO )Air pollution emission, PM, NOx, CO )
Enhancing Public Transport ShareReducing Emissions
from Vehicles
Share of public Share of public Reducing Transport
Need(Trip frequency) Share of public transport
Share of public transport
Need(Trip frequency)
GoalGoal
PopulationD it
PopulationD it
Reducing Transport N d (T i l th) Density
(Indicator for Land Use)Density
(Indicator for Land Use)Need (Trip length)
SPO Applied GovernmentPromotion
TechnologyProgress
Clean Future
2000:56:00
2008: 3002020: 1000
Same SameRail-based mass rapidtransit, MRT, km
Scenario for Beijing2000: 3680 2020:10000
2000: 3680 2000: 3680
2020: 12000 2020: 12000
2005: EURO III 2005: EURO III
Promotion of AlternativeFuel Vehicles: numberof Clean fuel bus
Vehicle emissionstandard and
2007: EURO IIIThree Scenarios:
2010: EURO IV 2010: EURO IV
Parking policy Increase Increase
Bus lane Bus laneBetter interchange Better interchange
Improved bus routes andservices
standard andInspection/Maintenance• Government
promotion(BaU)• Technology
Intelligent TransportSystem (ITS)
Finish by 2006 Finish by 2006
Promotion of AlternativeFuel Vehicles
2007: E15%
2005:Hybrid car 2005:Hybrid carPromotion of High
Technology Progress(TG)
• Clean future(CF)2005:Hybrid car 2005:Hybrid car
2005: new diesel car 2005: new diesel car
2013: fuel cell car 2013: fuel cell car
Promotion of HighEfficiency Vehicles
Mini Car : Incentivepolicies
Mini Car : Incentivepolicies
Promotion of HighEfficiency Vehicles
Public interchangeBicyclePublic transportEnergy saving driving
Improved bus routes andservices
Public interchange
Public awareness raisingon environmentally friendlydrivingInformation Technologybased communication andservices to reducetransportation need
Tele-conference, on-line shopping, nearbyservice
Promotion of special adopted adoptedlanes for walking andcycling
Vehicle fuel standard adopted adopted
Greening fuel tax Fossil fuel based taxby 2006
Select of LPS
Base one data survey, 480 boilers with capacity between 10t/h - 670t/h;in which 112 for hot water, 360 for heating
不同热力区段的LPS分布
5% 5%16% 104
120
分区域LPS个数Distribution of LPS with Capacity Distribution of LPS by county
5%16%
53
104
82
60
80
100
74%
53
32
11 6
32 35 3827 24
13 13 100
20
40
220~670 65~220 20~65 10~200 海
淀
朝阳
石景
山
丰台
通州
门头
沟
昌平
房山
顺义
密云
怀柔
*
延庆
大兴
平谷
Model ResultsCO2 Emission, t-C
NOx Emission t-NOx
Coal Demand, tce
NOx Emission, t NOx
SO2 Emission, t-SO2
Final energy use in Beijing
70
80
90
40
50
60
Mtce BaU
Policy
10
20
30
40M Policy
Low Carbon
0
10
2005 2010 2020 2030
60
CO2 Emission in Beijing
50
60
30
40
Mt‐C BaU
Policy
10
20y
Low Carbon
0
2005 2010 2020 2030
CO2 Emi ssi on f r om Ener gy Act i vi t i es i n Chi na,I PAC Resul t s
4000 D i
300035004000 Domestic
Willing
Low carbon tech
150020002500
Mt-C
Low carbon tech and change of consumption
0500
10001500
Demonstrated by Developed
Countries 70% to 80% emission0
2000 2005 2010 2020 2030 2040 2050YearBasel i ne Low Ener gy Pol i cy
80% emission reduction?
Basel i ne Low Ener gy Pol i cyLCS Gl obal 50% Pr oposal
29Chinese Manufactured green cars, picture from 2008 Beijing Automobile Exhibition
斯德歌尔摩:在欧洲许多城市,自行车、步行在逐渐形成主要交通方式通方式
城市发展的理念:道路
R t t dRecent study
• LCS China• Global and China Mitigation Scenarios• IPCC New Emission ScenarioIPCC New Emission Scenario• Low carbon scenarios for selected cities and provinces: Guangdong,
Hongkong, Shijiazhuang, Baoding, Shanghai, Beijing, Jilin city, Jilin ProvinceProvince
• 2050 emission reduction target• Detailed road map for policy options
R d f h l i• Road map for technology options• Post-Kyoto Commitment• Sector based approach: cement, power generation, transport• CCS in China: end use sector and province study• MRV application in China