low carbon energy projects in sub-saharan africa -...
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Expert Meeting on Trade and Climate Change: Trade and Investment Opportunities and Challenges under the
Clean Development Mechanism (CDM)
27-29 April 2009
Low Carbon Energy Projects in Sub-Saharan Africa
byGovinda R. Timilsina
World Bank
"The views expressed are those of the author and do not necessarily reflect the views of UNCTAD"
Christophe de Gouvello, Felix B. Dayo, Massamba Thioye, Govinda R. Timilsina
The World BankWashington, DC
Expert Meeting on Trade and Investment Opportunities and Challenges under the Clean Development Mechanism
UNCTAD, GenevaApril 27-29, 2009
World Bank Study: Low Carbon Energy Projects in Sub-Saharan Africa
Presentation Outline
►Introduction
►Methodology
►Key Results
►Main Challenges
►Conclusions
►Discussion
IntroductionDistribution of approved CDM projects
(source: UNFCCC)
World Bank’s high priority for development in SSA includes poverty reduction, modern energy access, and integrating climate change in economic development.
6.5%4.2%CDM projects in pipeline6.8%4.1%Registered CDM projects
Until 2012 CERSNumber of ProjectsSSA Share of World Total:
Methodology
Selection of GHG mitigation option
Cost information for project
and baseline methodologies
Data, parameters and assumptions
for scaling up potential
Estimation of GHG mitigation using CDM
baseline methodologies
Investment cost curvesTechnical potential for GHG reductions at country and
regional levels
CDM Methodologies used to Estimate GHG Mitigation
ACM0012; AM0055; AMS-III.P; AM0009; AM0037; AMS-III.C,K, S
FGR, Refinery, BRT,Biodiesel – Tran
Fuels in Transport
AM0041CharcoalWood fuel for Households
MethodologyProject TypeSector
ACM0012; AM0055; AMS-III.P; AM0009; AM0037; AMS-III.K; AM0005;
FGR, Refinery, Clinker
Fuels in Industry
ACM002; ACM004, ACM007;ACM0012; ACM0013; AMS-I.A, B, C, D; AMS-II.B, C; AMS-III.Q; AM0052; AM0061; AM0005; AM007; AM0014; AM0015; AM0019; AM0020; AM0022; AM0024; AM0026; AM0029; AM0032; AM0042; AM0044; AM0046; AM0048; AM0058
CCGT, CHP (IND, SUG), Residues (AGR, F, W), Typha, Biodiesel –Elec, Hydro, LFG, EE –IND, EE –HH, CFL
Electricity supply & demand
Methodology (Cont’d)
Potential CDM Projects and Emission Reduction
# of Projects or PoAs MtCO2 Reduction
3
13
18
20
20
26
26
30
40
46
49
55
60
63
67
68
204
211
321
373
406
553
555
Landfill gas capture to energy
Methane leakage reduction
Coal mine methane
Electricity T&D loss reduction
Non-lighting electricity for industry
Waste gas recovery in oil ref inery
Hydroelectricity projects
Energy efficient appliances
Typha australis*
Clinker reduction in cement manufacturing
Compact f luorescent lamps
Flared gas recovery
Fuel sw itch
Shift to Bus Rapid Transit (BRT)
CHP for sugar mills
Improved charcoal production
Open to combined cycle gas fired pow er plant
Improved steam system
Forest residues
CHP for industry
Wood-processing residues
Agricultural residues
Biofuel from jatropha
9.0
0.7
24.7
11.3
1.4
43.4
528.6
74.4
31.0
28.4
132.7
917.6
66.2
260.2
24.4
224.8
360.8
366.4
625.8
729.4
203.4
1,408.4
3,712.0
3,227projects
total
9,785MtCO2total
Emission Reduction by Project Type
Biodiesel-Elec37.9%
Residue-Agr14.4%
Refinery0.4%
Typha0.3%Other
2.5%
Clinker0.3%
CHP-Sug0.2%
T&D0.1%
Charcoal2.3%
BRT2.7%Hydro
5.4%Residue-Forest
6.4%Residue-Wood
2.1%CFL1.4%
EE-HH0.8%
CCGT3.7%
Steam3.7%
CHP-Ind7.5%
FGR9.4%
LFG0.1%
Biodiesel – Tran0.7%
EE-Ind0.01%
Methane leakage reduction
0.01%
CMM0.3%
Current Emissions & Mitigation Potentials
Emission Reduction by Country
Other3.2%
South Africa23.4%
Nigeria15.1%
Angola5.2%
Ethiopia4.9%
Mozambique4.2%
Tanzania3.3%
Zambia3.0%
Kenya2.7% Somalia
2.6%
Congo Dem7.0%
Benin0.8%
Malawi0.9%
Mali1.0%
Botswana1.3%
Ivory Coast2.3%
Burkina0.8%
Chad1.0%
Gabon1.1%
Senegal1.0%
Guinea1.2%
CAR1.3%
Congo Rep1.2%
Sudan1.2%
Zimbabwe1.6%
Madagascar1.4%
Uganda1.6%
Cameroon1.7%
Ghana1.9%
Namibia2.2%
Value of Emission Reduction (Millions of US$)
0 5,000 10,000 15,000 20,000 25,000 30,000 35,000 40,000
Methane leakage reductionNon-lighting electricity for industry
Landfill gas capture to energyElectricity T&D loss reduction
CHP for sugar millsCoal mine methane
Clinker reduction in cement manufacturingTypha australis*
Waste gas recovery in oil refineryFuel switch
Energy efficient appliancesCompact fluorescent lampsWood-processing residues
Improved charcoal productionShift to Bus Rapid Transit (BRT)
Open to combined cycle gas fired power plantImproved steam systemHydroelectricity projects
Forest residuesCHP for industry
Flared gas recoveryAgricultural residuesBiofuel from jatropha
(5US$/tCO2) (10US$/tCO2)
Total value at 5US$/tCO2: $48.9 billionTotal value at 10US$/tCO2: $97.8 billion
Potential Clean Electricity Generation and Savings
CDM Project Type Electricity Generation Capacity (MW)
Annual Generation (GWh)
Clean electricity capacity addition and energy production Landfill Gas 10 49Coal Mine Methane 109 809CHP - Sugar mill 661 3,489Typha australis 593 4,675Waste gas in oil refinery 659 5,777Wood Residues 4057 31,987Hydro 6,443 35,961CCGT Power 5,931 51,912Forest Residues 12,483 98,415CHP - Industry 17,844 156,314Agri. Residues 27,504 216,842Biodiesel - Electricity 27,748 218,767Flared Gas Recovery 44,826 353,409Total Additions 148,868 1,178,406
Electricity savings and capacity avoidance Efficient Motors in Industry 740 5,837Efficient Appliances in Households 1,412 11,131Compact Fluorescent Lamps 15,248 17,269T&D Loss Reduction 4,056 31,974Total Savings 21,456 66,211 Existing in SSA in 2006 68,675 375,496
Current Electricity Generation and Future Potential under the CDM
GHG Abatement Investment Curve
Charcoal (225)Landfill (9)
CMM (25)
Cement (28)
Jatropha (3,712) Hydro (529)
CCGT (361)
Refinery (43)
Cogen (729)
Typha Val (31)Agr. Res (1,408)
Lighting (133)
Cogen SCM (24)
Wood Residue (203)Forest Residue (626)
0
5
10
15
20
25
30
35
40
45
0 1,000 2,000 3,000 4,000 5,000 6,000 7,000 8,000 9,000 10,000GHG Reduction in Million Tons
Inve
stm
ent R
equi
red
Per U
nit o
f GH
G R
educ
tion
Key Barriers
Financial barriers (high perceived risks)
Infrastructure and market barriers
Lack of skilled human resources
Lack of awareness and information sharing
Institutional and regulatory barriers
Strategies to Overcome Barriers
Building confidence in investment community; alternative carbon financing (e.g., WB’s CTF)
Establishment of regulatory framework (e.g., setting of feed-in tariff)
Infrastructure planning and investment for market access (e.g. transmission lines, rural roads)
Dissemination of technical and economic information on clean energy technologies (e.g., information campaigns with equipment providers)
Strategies to Overcome Barriers (Cont’d)
Strengthening skills and knowledge of local manpower on clean energy technologies (e.g., training targeting specific labor forces)
Technical assistance and R&D for efficient and sustainable resource use (e.g., modern technologies for local biomass)
Development of institutional capacity to facilitate carbon financing (e.g., CF training activities)
Potential Role of the World Bank
Continue sector policy dialogue to raise awareness about opportunities and synergyStrengthen external technical expertise Policy supports in overcoming institutional and regulatory barriers Leadership to offer multi-country coordination for larger clean energy initiatives (GGFR, interconnections, etc.)Promotion of private-sector participation (PRGs for IPPs, etc.)High priority to SSA countries in alternative carbon financing (e.g., CTF, FCPF, of the World Bank)
Conclusions
Contrary to general perception, SSA offers huge potential for CDM (the energy sector alone could host 3,227 CDM projects with project lifetime GHG reduction potential of 9,785 million tCO2).These projects could attract US$ 155 billion in investment and could produce carbon revenues of US$ 97.8 billion at price of US$10/tCO2
Approximately 150 GW of clean electricity capacity (> 2 times the current capacity) can be added, and 22 GW (> 30% of the current capacity) can be avoidedDespite the promising potential, realization is severely constrained by a long list of barriersInternational donor organizations should take the lead in helping SSA realize its CDM potential
Acknowledgement
Norwegian Trust Fund World Bank Institute All researchers and support staff involved in the project
Thank You - Merci