The document discusses geothermal power generation in Latin America and the Caribbean. It notes that most electricity generation in the Caribbean and parts of Central America depends on imported fossil fuels. Geothermal potential has been identified as over 8,800 MW in the region, with the largest potential in Costa Rica, Mexico, Nicaragua, Ecuador, and Peru. The Inter-American Development Bank has invested $1.6 billion in geothermal and renewable energy projects in Latin America and the Caribbean. It also provides training programs to build geothermal capacity. The Sustainable Energy Facility for the Eastern Caribbean will provide $191 million in grants and loans to support geothermal exploration and plant development across several Caribbean countries.
On National Teacher Day, meet the 2024-25 Kenan Fellows
B1 - Unlocking Geothermal Development in Latin America and the Caribbean
1. 4th Iceland Geothermal Conference
Unlocking Geothermal Development
in Latin America and the Caribbean
24-26 April 2018, Reykjavik Iceland
2. Power Generation situation in LAC
17%
25%
46%
5%
2%
0%4%
0%
1%
Share Electricity Generation in LAC (2013)*
Petro
Gas
Hidro
ERNC
Nuclear
Others
Primary solid
biofuels
Biogases
42,02%
1,24%
0,09%
56,66%
Share Generation: Non-Conventional RE (ERNC)
Geothermal Solar photovoltaics
Solar thermal Wind
Wind
*Source: IEA and IDB analysis (2013)
Geothermal
3. Renewable Power Generation situation in LAC
*Source: REN21 Renewable Energy Policy Network for the 21st Century
4. Power Generation in Caribbean and Central America
Electricity generation in most countries in the Caribbean and some in Central
America still depend on imported fuels (diesel and fuel oil) and Climate Change
challenges make it necessary to find alternatives to hydro as main baseload
renewable source.
Source: IEA and IDB analysis (2013)
0%
10%
20%
30%
40%
50%
60%
70%
80%
90%
100%
DominicanRepublic
ElSalvador
Guatemala
Haiti
Honduras
Nicaragua
Panama
Share of Electricity Generation in CA and Haiti
% of total Generation*
Petro Gas Hidro ERNC Geothermal Solar photovoltaics Wind Primary solid biofuels
5. Geothermal Installed Capacity in LAC
Country Field Installed (MW)
Mexico 1,018
Cerro Prieto 720
Los Humeros 94
Los Azufres 194
Las tres
Virgenes 10
Costa Rica 180
Miravalles 165
Boca Pozo 15
El Salvador 204
Ahuachapan 95
Berlin 109
Guatemala 52
Zunil I 28
Amatitlan 24
Nicaragua 159
Momotombo 77
San Jacinto 82
Guadaloupe 15
Bouillante 15
Mexico and
Central America
1,613 MW
Caribbean
15 MW
6. Geothermal Potential Capacity in LAC
Country Potential MW
Argentina 167
Bolivia 250
Chile 465
Colombia 380
Costa Rica 2,070
Dominica 100
Ecuador 570
Brazil 343
El Salvador 457
Guadaloupe 45
Guatemala 455
Honduras 190
Mexico 1,901
Montserrat 5
Nevis 10
Nicaragua 783
Panama 7
Peru 554
St Lucia 30
St Vincent 10
Total LAC 8,791
Identified Potential Geothermal generation LAC
Costa Rica
23,55%
Mexico
21,62%
Nicaragua
8,90%
Ecuador
6,48%
Peru
6,30%
El Salvador
5,20%
Guatemala
5,18%
Chile
4,83%
Colombia
4,32%
Brazil
3,90%
Bolivia
2,84%
Honduras
2,16%
Argentina
1,90%
Dominica
1,14% Guadaloupe
0,51%
More than 8.8 GW of
Geothermal potential identified
This potential can be up to
70GW according to Geothermal
Energy Association
8. Training:
Capacity building in Geothermal in LAC
• Training for Public & Private employees
• Utilizing local expertize in El Salvador
- Collaboration with Nordic Developing Fund (NDF)
- University of El Salvador
- La Geo US$ 2 million Grant
137 experts
13 countries
5 geothermal training courses
9. Geothermal Power at the IDB: A Partnership Vision
US$ 1.6 Billion invested in LAC CORE
GDFLA
SEF
GEF
SEF Mexico, Colombia,
Nicaragua, Chile
Studies for Colombia,
Eastern Caribbean
E-learning El Salvador
Costa Rica, Bolivia,
Nicaragua, SEF4LAC
Eastern Caribbean, SEF4LAC
LAC, GDFLA Expanded
12. Estimated total investment required for GE in the ECC by stage
of project development
Country
Stage 1a:
Pre-invest-
ment
Stage 1b: Pre-
investment
Stage 2:
Exploration
Stage 3: Field
Development
T&D and
Access
Roads
Total
(Studies)
(Slim hole
drillings)
(Full scale
drillings)
(Productio
n/re-
injection
wells)
(Plant)
SL (done) 6 14 42 90 16.3 168.3
SVG (done) (skip) 14 21 45 16.3 96.3
GRE (done) 6 14 21 45 16.3 102.3
SKN (done) (done) 14 21 45 12.1 92.1
DOM (done) (done) (done) 7 45 15.0 67.0
Total 0 12 56 112 270 80.2 526.0
(in US$ Million)
13. Sustainable Energy Facility (SEF) for the Eastern Caribbean
CTF
(Five ECC)
CDB
Geothermal SPV
Local utility
Private developer/ investorGovernment
GEF
(A&B, GRE, SVG)
Final users
Electricity tariff
PPA contract
Republic of Italy
(Five ECC)
IDB
(All ECC)
Loans
Grants
CRG
Private Equity
Government Equity
Other Commercial
Debt
GCF
(Five ECC)
Grants/
CRG/
Loans
Grants
TA Grants
Investment grants
PPP contract/ Concession
Shareholder Agreement
SEF Program (Administered by IDB)
SEF-ExpandedSEF-2015
Loans
CRG
Grants
Leveraged/Parallel Financing
EU-CIF
DFID
IRENA/Abu Dhabi
Fund
(SVG)
EU-CIF
Grants
Grants
Loans
Leveraged/Parallel Financing
14. US$ 191 million in: grants ( for
studies), contingent recovery
grants (for exploration) and
concessional loans (for plants
development and transmission
lines) through the Sustainable
Energy Facility (SEF) for the
Eastern Caribbean with IDB,
CTF, GCF and GEF funding,
executed by the Caribbean
Development Bank
Posible undersea
Transmission line
Possible Geothermal plants
Geothermal
Power
Eastern
Caribbean
16. FINANCING SCHEMES FLOWCHART
Plant construction
and operation
Drilling
(well 1)
Drilling
(well 3)
Succeeds
NAFIN / BID / CTF
Drilling
(well 2)
Drilling
(well 4)
Drilling
(well 5)
Drilling
(well n)
Succeeds
Repays loan
Succeeds
Mexican
Government
…
Original Program
17. Levelized Cost of Energy for Geothermal
+ Levelized cost for Power generation (2018) 65.57 US$/MWh
- Clean Energy Certification (2018) 10.00 US$/MWh
= Net Cost of power (2018) 55.57 US$/MWh
Variables determinantes
Amortizacion de deuda
Intereses de deuda
Deuda Exploración
Tasa interes CTF % anual 0.75%
Margen NAFIN sobre CTF % anual 1.50%
Periodo de amortizacion años 17
Periodo de gracia años 5
Comisión de apertura % 0.0%
Deuda Explotación
Tasa BID % anual 3.00%
Spread NAFIN % anual 3.00%
Tasa de interes NAFIN para explotación % anual 6.00%
Periodo de amortizacion años 20
Periodo de gracia años 0
Comisión de apertura % 0.0%
OPEX
Costos variables de OyM usd 2018/MWh 20.00
CAPEX
Costo perforación unitario US$ MM/pozo 5.0
CAPEX de exploración (7 pozos) US$ MM 35.0
CAPEX de Planta y Campo US$ MM 52.0
OPEX
30%
Otros Gastos
6%
Amortización de
deuda
37%
Intereses de deuda
23%
Impuestos a la
utilidad
4%
Integración Costo Nivelado de Generación
18. Levelized Cost of Power Generation using Geothermal
assuming PPPs and economies of scale
+ Levelized Cost of power usig Geothermal (2018) 57.01 US$/MWh
- CELs (2018) 10.00 US$/MWh
= Net Cost of Power (2018) 47.01 US$/MWh
Variables determinantes
Condición optimizado
con APPs y escala en
perforación
OPEX
Costos variables de OyM usd 2018/MWh 20.00 15.00
CAPEX
Costo perforación unitario US$ MM/pozo 5.0 4.00
CAPEX de exploración (7 pozos) US$ MM 35.0
CAPEX de Planta y Campo US$ MM 52.0 49.00
Reference Price: Combined Cycle Plants 45-55 US$/MWh
(NG cost US$3/MMBTU .
22. Challenges of Geothermal Energy
• The inability to determine the geological
resource ex-ante (without drilling)
• High initial exploration costs
• Long maturity periods
• Lack of adequate regulatory frameworks
• Environmental and social permits
• Increased perception of risk among developers,
governments and financial institutions
Site costs
4% Exploration
2%
Production
wells
30%
injection
system
11%
power
plant
38%
connection
10%
Admin
5%
Share of cost by MW installed in Geothermal Power Plant*
*Source: R Henenberger
24. The Geothermal Electricity generation technology
• Minimum carbon footprint: 122kg CO2/MWh
(1/8 compared with coal)
• Small land footprint compared with other
generation sources.
• Baseload generation: the power output can be
accurately predicted
• Simple logistics: no mining or transportation of
material associated after installation.
• Long term available resource
• 90% capacity factor
A clean and reliable source of energy
Source: IMF