IEA Geothermal Implementing Agreement

Similar documents
Mexico Country Report 2012 IEA Geothermal Implementing Agreement

The Response to Exploitation of the Los Humeros (México) Geothermal Reservoir

Desalination Using Geothermal Energy

Japan Country Report 2013 IEA Geothermal Implementing Agreement

Update of Geothermics in Mexico. Actualización de la geotermia en México

Geothermal Energy in El Salvador

Geothermal Direct Use and Heat Pump Applications in Mexico

ABSTRACT. Figure 1. Geothermal areas of interes in Guatemala 2. AMATITLÁN GEOTHERMAL FIELD

Dr. Lothar Wissing Chairman IEA-Geothermal Forschungszentrum Jülich GmbH Division PTJ, Jülich, Germany

COSTA RICA COUNTRY UPDATE

SUSTAINABLE, AVAILABLE BASE-LOAD ELECTRICITY & HEAT : GEOTHERMAL ENERGY

CERRO PRIETO UNO AREA IN CERRO PRIETO FIELD MEXICO THROUGH 30 YEARS OF COMMERCIAL PRODUCTION

Costa Rica Country Update Report

2016 Working Group 8 Report - Direct Use of Geothermal Energy. Katharina Link May 2017

The Contribution of Geothermal Exploitation at the Miravalles Geothermal Field Toward the Reduction of Global Warming

Wind energy resource development along the Baja California-U.S. Border: progress and potential hurdles

ANALYSIS OF WORKOVER TECHNIQUES IN GEOTHERMAL WELLS OF CERRO PRIETO FIELD, MEXICO

Geothermal Development in Central America

A b u D h a b i 3rd 5th June 2015

CONTRACTING OF GEOTHERMAL PROJECTS

GEOTHERMAL POWER SOLUTIONS

Optimizing the energy portfolio of the Mexican electricity sector by 2050 considering CO 2 eq emissions and Life Cycle Assessment

RES - Status Quo, Potential and Prospects Vasileios Tsolakidis, CRES

Switzerland Country Report

Using Coastline Geothermal Resources For Desalination In Baja California, Mexico.

Japanese ODA Loan. Ex-Ante Evaluation

Geothermal Implementing Agreement

Inter-American Development Bank IDB PUBLIC SECTOR CTF PROPOSAL. Mexico Renewable Energy Program, Proposal III

Steel Rigid Frame Structural Behaviour at El Mayor Cucapah (Baja California) Earthquake April 4, 2010.

Electricity Reform Overview

World Small Hydropower Development Report 2013

Electrical Research Institute. Instituto de Investigaciones Eléctricas (IIE)

Renewable Energy: The Future of Biofuels

REGIONAL GEOTHERMAL OFFICE FOR CENTRAL AMERICA

Evolution of the Miravalles Geothermal Field in Costa Rica after Ten Years of Exploitation

IRIS Reactor a Suitable Option to Provide Energy and Water Desalination for the Mexican Northwest Region

CERTIFICATION AND FINANCING PROPOSAL

A Review of Worldwide Experience of Reinjection in Geothermal Fields. S. ZARROUK, E. KAYA and M. J. O SULLIVAN

Global Services Forum. Session 1: Leveraging infrastructure services as key enablers of the 2030 Agenda focus on Transport Services

Country Summary Sheet Guatemala

A Country Update of New Zealand Geothermal: Leading the World in Generation Growth Since 2005

CCS IN MEXICO AND ASSOCIATED COSTS. Rodolfo Lacy Mario Molina Center

Mexican Energy Reform Decree for the Transitory Regime Approved by Congress

THE GEOTHERMAL LEXICON

EXERGY ANALYSIS FOR THE AHUACHAPAN AND BERLIN GEOTHERMAL FIELDS, EL SALVADOR

Analyses market and policy trends for electricity, heat and transport Investigates the strategic drivers for RE deployment Benchmarks the impact and c

2. 3. Electricity Sector 4. Outlook Mexico, 2016

Mexican utility reform Powering the future

From surface to the reservoir, solving your geothermal challenges for over 50 years

WORLD ENERGY OUTLOOK Dr. Fatih Birol Chief Economist Head, Economic Analysis Division

EU Climate Change & Energy Policy and Nuclear Fission Research

Large Scale Hydrogen Production Using Nuclear Energy

H.R.6. Energy Independence and Security Act of 2007 (Enrolled as Agreed to or Passed by Both House and Senate) Subtitle B--Geothermal Energy

Measures to support Renewable Energy and Energy Efficiency Investment Projects in Greece

Geothermal Steam Turbines for Various Purposes

GEOTHERMAL PROJECT TIMELINES

Nuclear Power Advocacy in California

PROJECT INFORMATION DOCUMENT (PID) APPRAISAL STAGE Report No.: PIDA Project Name. Region. Country

Energy Perspectives for Asia

Implementation of a CIM-Based Semantic Interoperability Strategy for Smart Grid in Mexico

Big Data & Analytics to Support the Renewable Energy Integration of Smart Grids Case Study: Power Solar Generation

AREVA Solar Overview. Tom DePonty Director, Government Affairs United States Energy Association May 16, 2012

Energy Innovation Scoreboard A Pilot Framework with a Focus on Renewables

GEOTHERMAL. snohomish county pud

14 August 08

CCS - Commercially Viable but a Political Priority?

1 Country Case Study - Mexico. 1.1 Background General data

Outline of this presentation

CHP combined heat and power production as energy efficient and sustainable solution

Kawerau Industrial Direct Heat Use: Recent Developments

Impact of Regional Greenhouse Gas Initiative and Renewable Portfolio Standards on Power System Planning

Promoting Geothermal Energy Utilization in Indonesia Challenges and Opportunities

GEOFAR : Innovative geothermal technologies Last modifications: BINARY PLANTS

Low Carbon District Heating and CHP in the Future Energy Market: State of the Art and Perspectives in the light of current policies

Renewable energy potential and utilization in Turkey

Indonesia update: Tariff framework for renewable energy

RELIABILITY OF RENEWABLE ENERGY: GEOTHERMAL

IEA Workshop: The role of state-owned enterprises in the low-carbon energy transition. Monday, 26 September 2016

Binary Cycle Geothermal Power Systems

100 YEARS OF GEOTHERMAL POWER PRODUCTION

Realizing the Potential of Base Load Electricity Generation from Geothermal Sources: the San Jacinto-Tizate Field

Medium Term Renewable Energy Market Report Michael Waldron Senior Energy Market Analyst Renewable Energy Division International Energy Agency

Nicaragua. Geothermal Development in Nicaragua Ing. Donald Espinosa Ing. Mario González Ministry of Energy and Mines

Enhanced Geothermal Systems (EGS) Using CO 2 as Working Fluid

Roadmap for Solar PV. Michael Waldron Renewable Energy Division International Energy Agency

2015 Trilateral Energy Outlook Project

THE ROLE OF GEOTHERMAL ENERGY

AmCham EU Position on Shale Gas Development in the EU

Binary Power Plants in New Zealand

Biomass as a valuable renewable source for the creation of sustainable regions using the concept of circular economy

energy [r]evolution A SUSTAINABLE USA ENERGY OUTLOOK Executive Summary

Renewable Portfolio Standards

Electricity Generation and Greenhouse Gas Emissions

Power & Social Infrastructure Business Strategies

Birth of a world leader

Reliant on fossil fuels (coal, oil, natural gas)

SILICEOUS SCALING ASPECTS OF GEOTHERMAL POWER GENERATION USING BINARY CYCLE HEAT RECOVERY

Scoping technology scenarios for a 100% Renewable Energy Rotorua

Group 8. Energy System Integration: New Zealand Case Study, 2030 & 2050 Futures.

Methodology for calculating subsidies to renewables

Transcription:

IEA Geothermal Implementing Agreement Mexico Country Report 2014

Figure 1 Los Azufres geothermal field, Mexico 1.1 Introduction and Overview Geothermal and wind are the most important non-conventional renewable energy sources utilized in Mexico. Although there is some tradition for direct uses of geothermal energy, mainly related to balneology, the most important use is for electricity generation. Geothermal development for electricity generation started in Mexico in 1959, with the commissioning of the first commercial plant in the Pathé field (central Mexico) that was in operation up to 1973. That year the first geothermal power plants in the Cerro Prieto geothermal field started to operate. By December 2014 the geothermal-based installed capacity for electricity generation was 1018.2 MWe, and the running capacity was 840.2 MWe (Table 1). Key statistics related to power generation with geothermal energy in Mexico for 2014 are shown in Table 1. During 2014 there were 230 production wells and 28 injection wells in the four operating fields, on average. These wells were distributed as follows - Cerro Prieto: 164 production and 19 injection, Los Azufres: 39 production and 6 injection, Los Humeros 23 production and 2 injection, and Las Tres Vírgenes: 4 production and 1 injection. There is no comparable use or collection of data for direct uses of geothermal energy in Mexico; the most recent estimate places direct use of geothermal heat at 156 MWth. This is mainly for balneology. The number of sites using geothermal heat for balneology is around 165, distributed across 19 states. 1

Table 1 Status of geothermal energy use for electric power generation in Mexico for 2014. Electricity Total Installed capacity (MWe) 1018.2 Running capacity (MWe) 840.2 Generation equipment out of operation, mainly for lack of steam (MWe) 173 1 New installed capacity (MWe) 0 Contribution to National capacity (%) (Accounting for the running capacity) 2.03 Total generation (GWh) 5868 Contribution to National generation (%) 2.3 Target na 2 Estimated Country potential (MWe) 2310 3 na data not available 1 150 MWe (flash) in Cerro Prieto I, 20 MWe (flash) in los Azufres and 3 MWe (binary) also in Los Azufres. 2 There is no specific target set for geothermal energy. A target of 35% of total installed power generation capacity is set for clean sources by 2024. Clean sources are usually understood as those producing little or no greenhouse gas emissions, and they include geothermal energy. 3 Estimated potential from conventional hydrothermal resources with t > 150 C. Of these, 125 MWe correspond to proven, 245 MWe to probable, 75 MWe to measured, 655 MWe to indicated and 1,210 MWe to inferred resources (Gutiérrez-Negrín, 2012). 1.2 Highlights and Achievements One new geothermal field was developed during 2014, known as the Domo San Pedro field, located in the State of Nayarit and related to a couple of Quaternary dacitic domes. This is the first field privately developed in Mexico, under the previous energy regulatory framework. Several geothermal production and injection wells have been drilled, and the first two backpressure units of 5 MWe each were being installed. An additional power unit, a flash plant of 50-MWe (net), was installed in the Los Azufres geothermal field, and was under final tests by the end of 2014. This unit starts to commercially operate in February 2015, and with this four of the seven 5 MWe backpressure units will be decommissioned. Therefore the net additional capacity increase will be 30 MWe. 1.3 National Programme About 62.7% of the electricity for public consumption is generated by the government-owned utility the Comisión Federal de Electricidad (CFE). The other 37.3% is generated by privately-owned companies that operate combined-cycle and wind power plants and, until the end of 2014, were obliged to sell their power to CFE (except self-suppliers). At the end of 2014, CFE had developed and was managing all operating geothermal fields, however a private developer is expected to start power generation with geothermal energy in early 2015 (in the Domo San Pedro field). This primary energy source has been utilized for decades for power generation; the technology is considered mature for conventional (hydrothermal, high temperature) resources and it is set to compete under the same bases as fossil-fuel, conventional hydro and nuclear technologies. A target has been set for 2024, when 35% of the electric power generation in the country should come from clean energies, including geothermal. At present several working groups are being set up in order to establish targets for specific technologies. 1.4 Industry Status and Market Development At present there are no special economic incentives for geothermal development in Mexico. As mentioned above, power generation with geothermal energy is 2

considered conventional in Mexico, and thus it is set to compete under the same bases as fossil-fuel, conventional hydro and nuclear technologies. Therefore, it is fair to say that the main constraint for further geothermal development in this country is its economic disadvantages compared with modern fossil-fuel generation technologies. In 2013, Congress approved important constitutional modifications that paved the way for a substantial energy reform in Mexico, and in 2014 a number of pieces of legislation were approved that regulate the oil and electric power industries. One of these is the new Geothermal Energy Law (Ley de Energía Geotérmica), passed in August 2014, which is based on a grant system to allow exploration and exploitation of new geothermal areas in Mexico not only for the CFE, but also for private developers. Specific regulations for this act were issued by the Energy Secretary in late October 2014. The regulation defines the process for application for and authorisation of registrations, permits and concessions for the stages of reconnaissance, exploration and exploitation of geothermal resources in the country. 1.5 Research, Development and Demonstration/Deployment Most geothermal research activities in Mexico are focused on development and exploitation of resources for power generation. Specifically, they are aimed at improving the knowledge of the fields and thus the ability to predict their behaviour under continued exploitation. In recent times, effort has been spent in exploration of new areas with geothermal potential. Most geothermal research is funded by the federal government, although exploration of new areas has been carried out recently by private consortia. In 2014, the federal government launched the Mexican Center for Innovation in Geothermal Energy (CEMIE-Geo), which is led by the Ensenada Center for Scientific Research and Higher Education (CICESE), with participation from private companies, associations and institutions related to geothermal energy in Mexico. 1.6 Geothermal Education In the past, CFE has trained some of their engineers through the geothermal programs offered by Iceland (the United Nations University), New Zealand (the Geothermal Institute of the University of Auckland) and the Baja California University (UABC). In addition, CFE sent young engineers to Japan, for training under an agreement between JICA and the Mexican government. For the most part, mechanical, electrical, chemical and geological engineers are trained on the job, as part of their professional development in CFE and the Instituto de Investigaciones Eléctricas (IIE). Periodic professional meetings (congresses, seminars, etc.) provide a basis for continued education of geothermal personnel. 1.7 Future Outlook As mentioned above, it is expected that geothermal energy will experience a new boost now that the geothermal act is in force and the 30 new innovation projects of the CEMIE-Geo have started. These will continue to be developed between now and 2017. 1.8 References Gutiérrez-Negrín, L. C. A. (2012) Update of the geothermal electric potential in Mexico. Geothermal Resources Council Transactions, Vol. 36, pp 671-677. Gutiérrez-Negrín, LCA, R. Maya-González and JL Quijano-León (2015). Present Situation and Perspectives of Geothermal in Mexico. Proceedings World Geothermal Congress 2015, Melbourne, Australia, 19-25 April 2015. 3

1.9 Authors Magaly Flores Armenta, Manager of Geothermal Projects, Comisión Federal de Electricidad (CFE). Luis Gutiérrez-Negrín, Asociación Geotérmica Mexicana, Email: l.g.negrin@gmail.com David Nieva, Instituto de Investigaciones Eléctricas (IIE), Reforma No. 113, Col. Palmira, Cuernavaca, Morelos, Mexico Email: dnieva@iie.org.mx 4

To Find Out More If you are interested in learning more about the IEA Geothermal Programme, or you wish to join the IEA-GIA: Contact: IEA-GIA Secretary c/o GNS Science Wairakei Research Centre Private Bag 2000 Taupo 3352 NEW ZEALAND Tel: +64-7-374 8211 Email: iea-giasec@gns.cri.nz OR Visit the IEA-GIA Website IEA Geothermal Supporting and Advancing Worldwide Sustainable Geothermal Energy Use Through International Cooperation www.iea-gia.org The IEA Geothermal Implementing Agreement (GIA), also known as the Implementing Agreement for a Cooperative Programme on Geothermal Energy Research and Technology, functions within a framework created by the International Energy Agency (IEA). Views, findings and publications of IEA GIA do not necessarily represent the views or policies of the IEA Secretariat or of all its individual member countries.