Application Page

A.1

Party

A.2

Title of Mitigation Action

A.3

Description of mitigation action

**Updated entry on 07.12.2021**

The CPAs are intended to contribute to the sustainable development of companies through the definition and compliance with specific goals and actions, in environmental, health, hygiene and occupational safety matters, efficient use of energy and productive development. In particular the CPA shall be understood to be the agreement between a business sector, company or companies, with the Institutions of the State that have competence in the aforementioned matters.

It is the responsibility and main purpose of the Climate Change and Sustainability Agency (ASCC) of the Production Development Corporation, to carry out the coordination activities between the organs of the State Administration and the companies or entities of the private sector that correspond, in any of the stages of elaboration and implementation of the Clean Production Agreements. The Climate Change and Sustainability Agency has a governing board composed by the several ministries and agencies, representatives from the main industrial associations of the private sector, and a representative from the main workers organization of the country. The public and private sector have a balanced representation in this board. The ASCC has been Certified the CPA’s under ISO 9.001 and is working to get an accreditation under ISO 17.065.

The ASCC is financed by the Republic of Chile. Most human resources are directly or indirectly dedicated to the management of CPAs. The ASCC has a fund available to the private entities that can co-finance up to the 70% the expenditure on projects that support the creation and implementation of these agreements.

A.4

Sector

Energy supply

Residential and Commercial buildings

Agriculture

Waste management

Transport and its Infrastructure

Industry

Forestry

Other

A.5

Technology

Bioenergy

Energy Efficiency

Hydropower

Wind Energy

Carbon Capture and Storage

Land fill gas collection

Cleaner fuels

Geothermal

Solar Energy

Ocean Energy

Low till / No till

Other

A.6

Type of action

National/ Sectoral goal

Strategy

National/Sectoral policy or program

Project: Investment in machinery

Project: Investment in infrastructure

Project : other

Other

A.7

Greenhouse gases covered by the action

CO2

N2O

PFCs

CH4

HFCs

SF6

Other

B National Implementing Entity

B.1.0

Name

Climate Change and Sustainability Agency

B.1.1

Contact Person 1

B.1.2

Address

B.1.3

Phone

B.1.4

Email

B.1.5

Contact Person 2

B.1.6

Address

B.1.7

Phone

B.1.8

Email

B.1.9

Contact Person 3

B.1.10

Address

B.1.11

Phone

B.1.12

Email

B.1.13

Comments

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C Expected timeframe for the implementaion of the mitigation action

C.1 Number of years for completion This field has incorrect value!
C.2 Expected start year of implementation This field has incorrect value!

D Currency

D.1

Used Currency

Conversion to USD: 1

E Cost

E.1.1

Estimated full cost of preparation

Conversion to USD: 4,100,000

E.1.2

Comments on estimated full cost of preparation

This includes activities that are considered additional regarding the calculations and updating of the NAMA, that represent around the 10% of total cost of the professional in charge of this update. There are significant costs regarding design changes in the NAMA, but they are considered part of the operational and continuous improvement costs of the institution and the program, and therefore not additional to this particular update.

E.2.1

Estimated full cost of implementation

Conversion to USD: 45,050,000

E.2.2

Comments on estimated full cost of implementation

This only includes the cost incurred by the Climate Change and Sustainability Agency (ASCC). This value is calculated assuming the annual budget for the ASCC will be the same that was allocated in 2020 , extrapolated to the time frame considered in this update (2020-2030). That is US$ 4.096 million, multiplied by 11.

E.3.1

Estimated incremental cost of implementation

Conversion to USD: 321,000,000

E.3.2

Comments on estimated incremental cost of implementation

The incremental unit is 1 Clean Production Agreement.

The incremental cost is estimated using the average life cycle costs (not a yearly cost) of the agreements that were certified in 2020. This includes the human resources, the procurement of services and direct transfers made to the private sector by the ASCC in the context of these agreements.

It can be argued that for a few extra CPA the increment should not be linear but is not unreasonable to expect that for a large enough increase changes to the institution structure itself might be needed in terms of new hires and training, coordination costs, and so on. In that sense this value can be used as an upper limit, if other factors remain equal.

F Estimated emission reductions

F.1	Amount This amount has to be in units of MtCO2e (Million metric tons of carbon dioxide equivalent) or MtCO2e/yr (Million metric tons of carbon dioxide equivalent per year)
F.2	Unit
F.3	Additional information (e.g. if available, information on the methodological approach followed)	This value is estimated based on the following parameters: New facilities entering an agreement per year (that feed into the active facilities per year parameter), technology obsolescence, CO2 reduction per year per facility, CPA failure rate, certification success rate, Time to certification, Time to baseline. Total emission reduction 2, 270,000 ton CO2 eq, This value is estimated based on the following parameters: New facilities entering an agreement per year (that feed into the active facilities per year parameter), technology obsolescence, CO2 reduction per year per facility, CPA failure rate, certification success rate, Time to certification, Time to baseline. Values for the parameters: 475 new facilities entering a CPA agreement from 2021 to 2030. This value corresponds to the average between 2010 and 2020 excluding one CPA that involved trucks* . It also considers the facilities that are still in an agreement by 2020 and real adhesion from that year. This is used to estimate the number of active facilities per year. Obsolescence of technology 7 years after the signature of the agreement (which is consistent with the provisions of the Clean Development Mechanism). This means that the difference between the baseline and the CPA’s results for the intermediate effects of the CPA are assumed to be 8 years after the signature of the CPA. it is assumed a estimated reduction of 204 tons of CO2 equivalent per year per facility, which corresponds to the average of the reductions per facility between 2012 to 2020 for businesses in CPA’s* . A CPA failure rate of 14% was included (About 14% of all Agreements that are signed end before reaching certification stage), as well as a certification success rate of 44% (on the agreements that do reach certification stage, only about 44% of the facilities can demonstrate a 100% compliance with the agreement). These values are the historical values for the CPAs since their inception in 1999. Time to certification from agreement signature is assumed to be four years. This is based on historical values (see previous paragraph). This parameter is important because all the data of the facility that is used to calculate the impact, is made available to the ASCC at the time of certification, and this has a lagging effect on the inclusion of those facilities in the report. It also means that the report of a given year has to include retroactively the data from previous years that belong to the facilities that get certified the year of the report. This also means that only the data from facilities that are certified is available for the calculation. Time to baseline is assumed to be one year. This means the difference between the First year of data used to make the baseline, compared to the year of signature of the agreement. This is relevant because of the following: If the baseline data is captured after the signature of the agreement, as it actually happens, it makes the obsolescence of technology timeframe much shorter than the 7 nominal years, and since the baseline data correspond to the first year of implementation it is highly likely that some upgrades are already in place, and those are going to be captured in the baseline, which results in a smaller impact. The current estimate is based on the historical values. (See previous paragraphs for reference). Explanation on how the reporting works The methodology used to estimate the reduction of emissions and other co-benefits began with the definition of the actions and goals to be implemented in each of the Agreements, considering the data to be recorded to estimate the changes achieved with the implementation of such actions. The logic of data collection is bottom up (i.e. from the facilities, company and group of companies). Once the agreement is implemented, data is collected at the production facility level, and the number of indicators and possible areas will depend on the specific topics of each agreement (these may be indicators related to electricity consumption, fuel consumption energy, waste disposal and its destination, water consumption and source, and other indicators). Once the data are obtained, they must be systematized in a spreadsheet and classified according to categories consistent with those existing in the national greenhouse gas inventory, in order to be able to use the corresponding emission factors. In the case of categories not associated with the national inventory, the data are categorized in such a way that they can be compared between companies and facilitate their subsequent valuation or assignment to an SDG. Also, all data is converted to a single base unit, which depends on the category. Subsequently, calculations are applied to estimate scenarios. Each base category, which usually coincides with an intermediate effect, is assigned a processing model for the calculation of base scenarios and scenarios with APL: The base scenario corresponds to what would have happened without the Agreement, so the value is taken at the first available year, and with this an intensity coefficient is established (factor use/production), which is multiplied by the effective production of certain years; while the scenario with APL, will correspond to the effective data observed for the years of implementation of the agreement. The effect per intermediate category is considered per year, which is added for each year, considering a maximum period of 7 years (which is established as the minimum ceiling for technological replacement in the Clean Development Mechanism (CDM)). The resulting values are then multiplied by emission factors, global warming potentials (GWP) and/or other values, as appropriate, in order to obtain the scenarios for the impact categories. That single CPA has more than 2000 transport trucks, since they behave differently than a regular installation it was decided to exclude that value to avoid a biased estimation. * Any decrease in organic waste in one year (the intermediate effect) will have a lasting effect on CH4 emissions (the final effect) several years after due to the First Order Decay Model used in the decomposition of the organic waste over time. ***Not all facilities handed over their data, this estimate is based on 632 facilities of 44 agreements that complied with the commitments. The data on facilities that did not finalize the agreements is scarce.

G Other indicators

G.1

Other indicators of implementation

i) New facilities entering an agreement per year
ii) CO2 reduction per year per facility,
iii) CPA failure rate,
iv) certification success rate,
v) Time to certification,
vi)Time to baseline.

H Other relevant information

H.1

Other relevant information including co-benefits for local sustainable development

The CPA’s can have several co benefits depending on the specific goals and actions.

Using the SDGs as a taxonomy, we have developed a reporting framework for these different co-benefits. In the latest update, we reported (and developed) several indicators using the SDGs as a framework. As a result we have covered almost all of the SDGs.

Additionally, we were able to do conversion to a monetary value on several of them. The rate used is based on social value estimates supported by literature . By aggregating this number we created a form of sustainable index that represents the social value created (or damage avoided) with the CPAs. Based on the same assumptions explained in F.3, we reach a result of MM US$836 for the period 2020-2030, using the observed 2012-2020 average per year per facility of US$75,086.

This considers the economic valuation of avoided costs for the economy as a whole, in relation to less energy use, less water use, less waste disposal and fertilizer uses. There is the challenge of evaluating more indicators, and moving from market value to values that also have externalities embedded into them. This is one of the challenges that will be addressed on future reports during this 2020-2030 period.

I Relevant National Policies strategies, plans and programmes and/or other mitigation action

I.1	Relevant National Policies	Clean Production Agreement Law [https://www.bcn.cl/leychile/navegar?idNorma=1010668&idParte=8861304] Nationally Determined Contribution (NDC 2020). Contribución Determinada a Nivel Nacional de Chile, Actualización 2020. In page 50, The CPAs are mentioned as a vehicle for the inclusion of the circular economy in companies. [https://mma.gob.cl/wp-content/uploads/2020/04/NDC_Chile_2020_espan%CC%83ol-1.pdf] National Climate Change Action Plan (2017). Plan de Acción Nacional de Cambio Climático 2017-2022, 2017. (Page 122, Sheet MM22. The agreements are considered as an instrument to achieve synergies with the program of the Ministry of the Environment in quantifying emission reductions.) [https://mma.gob.cl/wp-content/uploads/2017/07/plan_nacional_climatico_2017_2.pdf] National Climate Change Action Plan (2017). Plan de Acción Nacional de Cambio Climático 2017-2022, 2017. (Page 122, Sheet MM22. The agreements are considered as an instrument to achieve synergies with the program of the Ministry of the Environment in quantifying emission reductions.) [https://mma.gob.cl/wp-content/uploads/2017/07/plan_nacional_climatico_2017_2.pdf] Climate Strategy for technology development and transfer (2021). The more general term “agreement” is used in page 20 letter e) and in the table of page 50. Those are the roles envisioned for the CPA’s in the context of that strategy, but it was referenced in a more open way in order to not narrow the implementation of that strategy to a single type of agreement. [https://www.minciencia.gob.cl/legacy-files/estrategia_de_transferencia_tecnologica_para_el_cambio_climatico_1.pdf] Chile Long Term Climate Strategy (2021). The CPA’s are specifically mentioned in page 225, under instruments for financial leverage, due to the role of the CPA’s in mobilizing the private sector. Also in page 172 the CPAs are mentioned as an instrument to manage hydric resources. [https://unfccc.int/sites/default/files/resource/CHL_LTS_2021.pdf]
I.2	Link to other NAMAs

J Attachments

J

Attachments

Title	Description
Copy of Simulación Nueva Meta NAMA APL.xlsx	Simulación Nueva Meta NAMA APL: Spreadsheet with the simulation used to define the new goal.
Reporte_Interactivo_ODS_y_Cambio_Climático_2020.pdf	Interactive Report on SDGs and Climate Change 2020 (2021-2020) (Report on the results of the NAMA in the period 2012-2020, in terms of mitigation indicators and co-benefits (environmental, social and economic) https://datastudio.google.com/u/0/reporting/508a6d6e-72cc-4cbc-b573-8401ab9eeccf/page/kBSvB?s=g3gxLHnD0sk

J.1

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J.2

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Public NAMA

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NR-11 - Clean Production Agreement (CPA) in Chile

Chile

NAMA for Recognition

(none)
Sustainable Housing Programme
High Integration Program of Wind Energy
Implementation of a National Forestry and Climate Change Strategy, including the development and implementation of a Platform for the Generation and Trading of Forest Carbon Credits.
LNG Terminal with regasification capacity of 10.000.000m3/d of natural gas with possible expansion to 15.000.000m3/d
Promotion of renewable energy participation in the Uruguayan primary energy mix
Expanding self-supply renewable energy systems (SSRES) in Chile
National Program for Catalyzing Industrial and Commercial Organic Waste Management in Chile
First introduction of Photovoltaic Solar Energy in the national electrical grid
Clean Production Agreement (CPA) in Chile
NAMA in Renewable Energy and Energy Efficiency
NAMA in the Forestry sector
Rehabitation Of Al-Akaider L andfill
Fuels and Emissions Savings
Fuels and Emissions Savings
Improvement of Energy Efficiency in the Jordanian Water Sector (IEE)
Improvement of Energy Efficiency in the Jordanian Water Sector (IEE)
National appropriate mitigation action (NAMA) for industrial sector
National appropriate mitigation action (NAMA) for national domestic waste management
Samra Thermal Power Station - Phase-III Add-On Combined Cycle
Expansion of existing heating network in Valjevo
Introduction of metering system and billing on the basis of measured consumption in district heating systems in Serbia
Use of Solar energy for domestic hot water production in Heat plant “Cerak” in Belgrade
Thermal Power Project with Capacity and Efficiency Increase II - TTP Nikola Tesla – Unit A3
Introduction 1000 MW of small biomass boilers in Serbia
Rehabilitation of arterial roads in Serbia
Revitalization of the Existing Small Hydropower Plants and Construction of New Small Hydropower Plants (SHPPs)
Thermal Power Project with Capacity and Efficiency Increase I - TTP Nikola Tesla – Unit B2
Construction of a Super-critical Lignite Power Plant TTP Kostolac B
Energy Efficiency Improvements in Public Buildings: 23 schools and 26 hospitals – Serbian Energy Efficiency Project (SEEP)
The Zarqa River Basin Industrial Waste Water Treatment Plant and Energy Plant(ZIWWTEP)
Improvement of old residential buildings envelope (exterior doors, windows and thermal insulation) in Serbia
Low Carbon Climate Resilient Development Strategy
Supporting Implementation of 100% Renewable Electricity by 2020
Construction of New Energy Efficient Buildings Based on Energy Efficiency Regulation in Serbia
Replacement and Construction of a New Natural Gas Cogeneration Plant CHP Novi Sad
Tourism and Waste in the Dominican Republic
Climate-related ODA funding
International Climate Initiative (IKI)
NAMA Facility (Archived entry, Please refer to updated entry S-321)
Global Environment Facility (GEF) Trust Fund
Sustainable Urban Transport Initiative
Emission Reduction Actions Program (NAMA) in Natural Gas Processing, Transport and Distribution System, through fugitive emission reduction
EU-Africa Infrastructure Trust Fund
Cogeneration in the mexican Oil and Gas sector
Neighbourhood Investment Facility
Latin American Investment Facility
NAMA for accelerated geothermal electricity development in Kenya
Austrian NAMA Initiative
Adaptive Sustainable Forest Management in Borjomi-Bakuriani Forest District
Energy Efficient Lighting in Residential, Commercial, Industrial, and Outdoor Sectors of Pakistan
Smart Street Lighting Initiative
Support for Activities related to sustainable Management of Forests
Nationally Appropriate Mitigation Actions for low-carbon end-use sectors in Azerbaijan
NAMA for New Residential Buildings
NAMA for Sustainable Housing Retrofit
Urban NAMA
Energy Efficiency in Public Sector
Development of a feed-in tariff NAMA for renewable energy
ODA for Climate Change Measures
Santiago Transport Green Zone (STGZ)
Nationally Appropriate Mitigation Actions for Low-carbon Urban Development in Kazakhstan
Colombia TOD NAMA
Inter-American Development Bank (IDB)- Support for the design, development and implementation of NAMAs in the LAC region
Spanish NAMA Platform
Energy Efficient Public Buildings and Housing in Armenia
Supporting Mechanisms for Promoting Distributed Generation (Net Metering, Wheeling, Banking etc.) in Pakistan to put 3 GW Alternative and Renewable Energy (ARE) Projects in next 7 years.
Strategizing for Grid Strengthening / Improvement for evacuation of power from Solar Power Projects
Accelerating the Market Transformation to Energy Efficient Lighting
Development and Installation of Carbon Dioxide Sequestration Technologies in Pakistan
Harnessing Municipal Waste of big Cities of Pakistan to Generate Electricity
Strategizing for Grid Strengthening / Improvement for evacuation of power from Wind Power Projects
FAOSTAT Emissions Database
NEFCO Carbon Finance and Funds
Bio-energy generation and greenhouse-gases mitigation though organic-waste utilization
Integrated improvement of Road-based Freight sector in Colombia
Reducing Greenhouse Gases (GHG) Emissions in Pig Farms in the Dominican Republic
Reduction, Recycling and Reuse of Solid Waste in Kampala City
The Promotion of the Use of Efficient Institutional Stoves in Institutions
Bus Rapid Transit (BRT) for Kampala
Developing appropriate strategies and techniques to reduce methane emissions from livestock production in Uganda
Integrated Wastewater Treatment for Agro-process Water in Uganda
Periodic Vehicle Inspection for Emissions and Roadworthiness
NAMA - Low Carbon Coffee - Costa Rica
Costa Rica Livestock NAMA
Efficient Cookstoves
Solar Water Heaters
Cogeneration in Mexico
Car Fleet Renewal in Mexico
Disposal and Use of Wastes and Solid and Biomass Residues
Fuel Switch in the industry
Fuel Switch for the Power Generation
Renewable Energies and Energy Efficiency in the Private Sector
Low Emission Schools
Ethiopia Railway's Addis Ababa Light Rail Transit (LRT) Transit Oriented Development (TOD) NAMA
Ethiopia Railways ‐ Establishment of Climate Vulnerability Infrastructure Investment Framework NAMA
Ethiopia's National Railway Network and Addis Ababa Light Rail Transit (LRT) NAMA
Ethiopian Railways –Railway Academy NAMA
Expansion of electricity generation from sustainable forestry biomass byproducts.
Federal Road Freight Transport NAMA for owner operators and smaller fleet carriers
UNDP MDG Carbon
Blue Carbon NAMA: Conserve and Restore Mangroves in the Dominican Republic
Windfarm in Quttaineh
Windfarm in Ghabagheb
Solar electric power plant
Combined cycle power plant in the coastal area
Expansion of combined cycle power plant in Nasiriyah
FAO Learning tool on Nationally Appropriate Mitigation Actions (NAMAs) in the agriculture, forestry and other land use (AFOLU) sector
Rural Development in Namibia through Electrification with Renewable Energies
Rural Development in Namibia through Electrification with Renewable Energies
Thailand Refrigeration and Air Conditioning NAMA (RAC NAMA)
Rural Electrification with Renewable Energy in The Gambia
Sustainable production with low-emission technologies in agriculture and agroindustry production chains.
NAMA Support for the Tunisian Solar Plan
Climate Technology Centre and Network (CTCN) Technical Assistance
UNDP Low Emission Capacity Building Programme (LECB Programme)
Sustainable Fertilizers Production and Use
Developing a Sustainable Charcoal Value Chain in Rwanda
Electrification with solar PV mini-grids in rural villages in Rwanda
Promoting the use of Renewable Energy Solution for Households and Buildings
Energy Efficiency Improvement in the Tea and Coffee Sector in Rwanda
Bus Rapid Transit in Kigali (with linkage to non-motorized transport)
Waste-to-Energy (WtE) and improved waste management practices in Kigali
Fuel Efficiency in Motor Vehicles
Support to Integrated E-Waste Management System for State of Sabah, Malaysia
Detailed Study of Sustainable NAMA Financing Mechanism for Reactivating Renewable Energy-based CDM Project Activities in Malaysia
Promoting cultivation of high-yielding upland rice in Uganda
National Fuel Efficiency Initiative
MULTIPURPOSE UTILIZATION OF BIOCHAR IN MONGOLIA
Sustainable and energy efficient building of Faculty of Architecture, Civil Engineering and Geodesy in Banja Luka
Productive and Technological Reconversion of Colombia's Panela Sector
Energy with Renewable Sources in non-interconnected areas
Public Lighting Energy Efficiency
Colombian NAMA for the domestic refrigeration sector
Sustainable Bovine Livestock
Implementation of Feed-in Tariff Mechanism in Malaysia
Rural Electrification with Renewable Energy in The Gambia
NAMA for Rural Development in Lao PDR
Efficient use of biomass for equitable, climate proof and sustainable rural development
Rural Electrification in Vanuatu
Rural Electrification in Vanuatu
TRANSPerú - Sustainable Urban Transport NAMA
Energy Efficient Refurbishment in the Georgian Public Building Sector
Solar Energy Development in Uzbekistan
NAMA for Rural Development in Lao PDR
Support to Sierra Leone Preparation of Nationally Appropriate Mitigation Action
Provision of Sustainable Energy in Zimbabwe through use of Biogas
National Solar Water Heating Programme
Nationally Appropriate Mitigation Actions in the Construction Sector in Mongolia
Lighting system optimization by replacing incandescent and other lights with energy efficient LED lights
Efficient Biomass Stove Development, Dissemination and Commercialisation
People-centred Urban Mobility in Thailand (Thailand Mobility NAMA)
Fostering Use of Natural Gas in the Transport Sector
Rainfed Mountain Belt Reforestation
Biogas for onsite power generation for medium/large pig Farms
Supporting Program for Wind Power Development in Viet Nam
NAMA Urban Passenger Transport Ulaanbaatar
NAMA - Low Carbon Coffee in Dominican Republic
Green Urban Mobility Solution for Zambian City Integrated Tramway
Sustainable Agriculture through Integrated Crop and Livestock Farming
Small Hydro Projects Development in Zambia
Integrated Waste Management
Reducing greenhouse gas emissions in cuban pig production
Appropriate Mitigation Actions in Energy Generation and End Use Sectors in Sri Lanka
Catalytic Program for Energy Efficiency in Public Buildings (ProCEEEP)
Removal of atmospheric carbon through recuperation of degraded Chilean agricultural soils
The promotion of small scale CHPs in the Republic of Moldova
Promotion of heat pumps in the Republic of Moldova
Promotion of wind power plants (WPP) in the Republic of Moldova
Use of solar energy for domestic hot water production in the Republic of Moldova
Promoting Energy Efficient Lighting in the Republic of Moldova
Hybrid and electric buses and minibuses in the city of Chisinau
Clinker substitution at cement production
Reducing GHG emissions from Enteric Fermentation by including dried grape marc in cattle ratios
Implementation of soil conservation tillage system in the Republic of Moldova
Afforestation of degraded land, riverside areas and protection belts in the Republic of Moldova
Use of energy willow for heat generation in the Republic of Moldova
Waste to Energy (WTE) NAMA in The Republic of Moldova
Subnational mitigation actions for the regeneration of landscapes
Greening Thailand's Low and Middle Income Housing
Greening Thailand’s Government Buildings
National Strategy for the Adoption of Efficient Stoves
Efficient use of fuelwood and alternative fuels in indigenous and rural communities in Guatemala
Sustainable and Low Carbon Bovine Livestock Development
Low-carbon Bus NAMA Viet Nam
Forestry NAMA : Strategic framework for Forest Landscape Restoration
Energy Efficiency Improvement in Iran's Agricultural Irrigation Systems through the Replacement of Inefficient Water Pumping Systems (EEIIA)
Participatory development and arrangements of the National Strategy and Action Plan for low-carbon water and sewage industry
Energy efficiency and Demand Management Programme to mitigate projected national energy supply shortage
Industrial Energy Efficiency Improvement in South Africa
The Gautrain rapid rail network – Part of the Climate Change Near-term Priority Transport Flagship Programme
Reduction of greenhouse gases emission through the sustainable forest landscapes management by vulnerable rural producers in Guatemala
Reduction of CO2 Emissions in Building Commercial Bank
NAMA Rail Bangladesh
Optimization of Power Generation and Energy Efficiency Program (OGE&EE for its acronym in Spanish)
Securing Energy Efficiency in the Ecuadorian Residential and Public Sectors.
NAMA of the Hydropower development in Ecuador NAMA-DCH (for its acronym in Spanish)
NAMA of the Efficient Cooking Program in Ecuador
Implementation of Climate Change Mitigation Strategies in the Freight Transport Sector
Implementation of Climate Change Mitigation Strategies in the Passenger Transport Sector
NAMA Facility
Samoa Transport Sector NAMA
Promoting Up-scaled Use of Energy efficient Air-Conditioning (ACs) and Solar Water Heating Systems (SWHs) in Residential and Commercial Buildings in Viet Nam
Climate-Smart: A New Pathway to Low-Carbon and More-Resilient Development for Small Cocoa Farmers in the Context to Dominican Republic’s Nationally Determined Contribution
NAMA in Cement/Co-Processing and Waste Sector
Green School NAMA
Promotion of efficient and low carbon forestry and agroforestry value chains in Guatemala
Off-grid Renewable Energy Solutions in Rural Suriname
Rice production NAMA
Integrated improvement of Road-based Freight sector in Colombia
Ethiopian NAMA: Creating Opportunities for Municipalities to Pro-duce and Operationalise Solid Waste Transformation (COMPOST)
Ethiopian NAMA: Creating Opportunities for Municipalities to Pro-duce and Operationalise Solid Waste Transformation (COMPOST)
Costa Rica Rice NAMA
Costa Rica Musaceae NAMA.
Costa Rica Sugarcane NAMA