Chilling Prospects: Addressing heat-related risks in Bangladesh's Ready-made Garment (RMG) Sector

Towards sustainable cooling and improved working conditions
Data analysis

According to Chilling Prospects 2023 analysis, Bangladesh is home to 20.7 million women and 16.5 million men at high risk due to lack of access to cooling services. Women make up as much as 57 percent of the urban poor at high risk in the country as a result of their over-representation in urban slums.

Bangladesh regularly experiences some of the highest maximum temperatures registered in Asia and it is expected to see an increase of up to 3.6°C under a high greenhouse gas (GHG) emissions scenario (RCP8.5) by the end of the century. With more severe and frequent heatwaves, it is predicted that Bangladesh will suffer economic losses and occupational health risks in some sectors, particularly in the ready-made garment (RMG) industry. By 2030, Bangladesh is expected to lose 4.84 percent of working hours due to heat stress – the equivalent of 3.833 million full-time jobs.  

The RMG industry in Bangladesh is a strong driver of economic growth and female employment. Some of the world's biggest fashion brands operate in Bangladesh, representing around 25 percent of the total garment workforce worldwide, the second-largest clothing manufacturer after China. In 2019, the industry accounted for about 83 percent of the country’s export earnings and represented 12-15 percent of its GDP. According to the Bangladesh Bureau of Statistics, there are 7,727 establishments in the country, and female workers represent at least 60 percent of the workforce in this industry.  

Poor ventilation, insufficient lighting, lack of drinking water and inadequate sanitation facilities are common, and heat-related risks in the RMG sector are a major concern. Activities such as sewing, ironing, pressing, steaming and other processes contribute to the overall heat generation in factories, making it critical to address the impact of high temperatures and humidity on workers, particularly female employees.  According to a recent study in Dhaka, the temperature on the upper floors of garment factories can consistently exceed 30°C and there are 110 days throughout the year when temperatures can surpass 35°C. Another study shows that heat causes dizziness, headaches, fatigue and nausea among RMG workers.  

In hot working environments with inadequate sanitation facilities, workers avoid drinking water as they often need permission from their supervisors to leave their places of work to refill water containers or go to the restroom. Passive solutions such as green roofs, white roofs and shading can decrease indoor temperatures by 2-3°C in the hottest parts of the factories, decreasing demand for active cooling and improving work conditions. Other measures to improve well-being and productivity include heat education and awareness, improved hydration, and sanitation facilities for women.  

In recent years, international garment brands, government, labour organizations and multilateral organizations have been working to improve working conditions in the sector and modernize structural, electrical and safety standards. The Bangladesh National Cooling Plan for the Implementation of the Montreal Protocol marks a milestone in the response to tackle the impact of extreme temperatures. In the coming years, a holistic approach that encompasses passive and cooling solutions is expected not only to curb carbon emissions but to improve working conditions for both sexes in the garment sector and set an example for other countries relying on this sector.  

Country

Bangladesh

Programme

Cooling for All

Chilling Prospects 2022: Urban land-use and heat analysis in major cities of the Critical 9 countries

Data analysis
Chilling Prospects 2022

Chapter 2.4

Chapter 2 overview
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This analysis covers the most populous cities in each of the Critical 9 countries for access to cooling. As urbanization grows, areas of these cities with vegetation and green spaces are seeing increased buildup that has compounding effects. Adding density implies an increase in the Urban Heat Island Effect (UHIE) through the use of active cooling equipment. When buildup comes at the expense of natural heat sinks such as green space and water, the effect is multiplied, creating additional risk for the most vulnerable populations.

The following analysis examines the impact of land-use change since 2015 in major cities in each of the Critical 9 countries and the implications of urbanization for urban heat. The annual global land-cover change maps [1] from the Copernicus Land Monitoring Service [2] form the basis of this analysis and the year-over-year land-use change was measured using QGIS [3] and Rstudio. [4] It uses mean projections for each city using IPCC’s most optimistic emissions scenario –  [5] the Shared Socioeconomic Pathway (SSP1-1.9 scenario) from the Climate Change Knowledge Portal, [6] where the global CO2 emissions are cut to net zero around 2050. This is the only scenario that meets the Paris Agreement’s goal of keeping global warming to 1.5°C above preindustrial temperatures.

 

Map: Cooling degree days
Ürge-Vorsatz, D., Petrichenko, K., Antal, M., Staniec, M., Labelle, M., Ozden, E., Labzina, E. Best-Practice Policies for Low Energy and Carbon Buildings [7]

Dhaka, Bangladesh

Population

2015: 17,597,000  
2019: 20,284,000 
Present: 22,265,410 

How to use the interactive map

Projected number of summer days with more than 25 degrees
Projected heat days for Dhaka, Bangladesh at more than 35 degrees

Source: Climate Change Knowledge Portal, The World Bank Group, 2022


Between 2015 and 2019, Dhaka added 0.93 square kilometers of built-up area for domestic and commercial use. This buildup came at the expense of 0.27 square kilometers of herbaceous vegetation, 0.44 square kilometers of cultivated and managed vegetation, and 0.1 square kilometers of herbaceous wetland.

Dhaka is expected to experience sustained high temperatures above 25°C in the most optimistic scenario, and a significant number of dangerous heat days over 35°C between March and June annually. The loss of cultivated land for fruits and vegetables not only implies a reduced ability to grow crops locally, but also diminishes the resilience of a growing urban population to the dangers of extreme heat. Understanding this impact and placing emphasis on urban greening and land to cultivate produce is likely to benefit both the UHIE in the city as well as food security. 

Jakarta, Indonesia

Population

2015: 10,173,000 
2019: 10,639,000 
Present: 11,028,848

How to use the interactive map

Jakarta: Projected number of summer days with Tmax more than 25 degrees
Jakarta: Projected number of summer days with Tmax more than 35 degrees

Source: Climate Change Knowledge Portal, The World Bank Group, 2022


Between 2015 and 2019, Jakarta increased its built-up area by 0.87 square kilometers at the expense of 0.25 square kilometers of herbaceous vegetation, 0.19 square kilometers of cultivated and managed vegetation, and 0.1 square kilometers each of bare/sparse vegetation and water bodies. This process also included the removal of 0.14 square kilometers of open forest that would have had a passive cooling effect on urban areas. 

These changes were driven by increasing urbanization, but in combination with a growing number of days above 25°C annually, are likely to exacerbate the UHIE in the city. Even though Jakarta is not projected to have many days with dangerous heat (above 35°C), this trend will lead to increased cooling needs that could dramatically increase energy demand if met with inefficient, active cooling technologies.  An expansion of green urban areas through land-use planning would help reverse these losses and reduce heat stress felt by residents on high-temperature days.

Karachi, Pakistan

Population  

2015: 14,289,000 
2019: 15,741,000
Present: 16,730,070 

How to use the interactive map

Karachi: Projected number of summer days with Tmax more than 25 degrees
Karachi: Projected number of summer days with Tmax more than 35 degrees

Source: Climate Change Knowledge Portal, The World Bank Group, 2022


Between 2015 and 2019, Karachi gained 6.63 square kilometers of built-up area at the expense of 1.82 square kilometers of shrubs, 0.18 square kilometers of herbaceous vegetation, 0.31 square kilometers of cultivated and managed vegetation, 3.6 square kilometers of bare or sparse vegetation, and 0.74 square kilometers of open forest.

Karachi made significant changes to its land-use patterns between 2015 and 2019, which has implications for food safety, agricultural production and thermal comfort. While the built-up area increased by 6.63 square kilometers, land used for cultivating produce grew by a significantly larger amount, 213 square kilometers. This provides the city with resources to grow local produce, benefitting residents and farmers through better food security and enhanced agricultural incomes, though there is a need for an expansion of the local cold chain to reduce potential post-harvest losses.

With Karachi set to experience a high number of days with dangerous heat between April and October every year, further urban planning efforts to reduce the UHIE and reliance on inefficient, mechanical cooling would especially benefit the most vulnerable urban dwellers.

Lagos, Nigeria

Population  

2015: 12,239,000 
2019: 13,904,000 
Present: 15,236,259

How to use the interactive map

Lagos: Projected number of summer days with Tmax more than 25 degrees
Lagos: Projected number of summer days with Tmax more than 35 degrees

Source: Climate Change Knowledge Portal, The World Bank Group, 2022


Between 2015 and 2019, Lagos saw an increase of 0.43 square kilometers of built-up area. This came at the expense of 0.37 square kilometers of herbaceous vegetation, and marginal reductions in cultivated and managed vegetation, bare or sparse vegetation, water bodies and open forest.

Even in the most optimistic scenario, it is likely that there will be an increase in the number of days with dangerous heat (more than 35°C) per year for Lagos. Coupling this with rising sea levels, urbanization processes need to not only factor in human comfort and safety but also increased urban resilience.

Maputo, Mozambique

Population

2015: 1,100,000 
2019: 1,104,000 
Present: 1,134,096 

How to use the interactive map

Maputo: Projected number of summer days with Tmax more than 25 degrees
Maputo: Projected number of summer days with Tmax more than 35 degrees

Source: Climate Change Knowledge Portal, The World Bank Group, 2022


Between 2015 and 2019, Maputo increased its built-up area by 0.3 square kilometers and lost 0.12 square kilometers of herbaceous vegetation, as well as marginal amounts of shrubs, cultivated and managed vegetation, water bodies and open forest. 
Mozambique does not have a large urban population — 63 percent of its people still live in rural areas —  [8] and this is reflected in the observed land-use changes. But the city is planning for expansion, including through the Maputo Urban Transformation Project. [9]

It is expected to see over four days of dangerous heat (+35°C) annually between September and February, presenting urban planners in Maputo with a unique opportunity to plan early for the increasing effects of heat, for example through natural heat sinks, increased green spaces and improved passive cooling measures. 
 

Mumbai, India

Population 

2015: 19,316,000
2019: 20,185,000
Present: 20,876,486

How to use the interactive map

Number of summer days Tmax 25
Number of summer days Tmax 35 degrees

Source: Climate Change Knowledge Portal, The World Bank Group, 2022


Between 2015 and 2019, Mumbai gained 0.9 square kilometers of built-up area at the expense of 0.14 square kilometers of herbaceous vegetation, 0.14 square kilometers of cultivated and managed vegetation, 0.28 square kilometers of closed forest, 0.16 square kilometers of open forest, and lesser amounts from shrubs, bare/sparse vegetation and water bodies.

Each year large segments of India’s population move to Mumbai from rural areas for social, economic and environmental opportunities. This migration has contributed to the expansion of informal settlements, including the Dharavi slum that is now home to more than 1 million people. [10] With projections for at least 15 days per month of dangerous heat between March and June each year, these people will be increasingly vulnerable to a lack of access to cooling.

Heat-action planning, and public cooling centres are among the types of low-cost solutions that can help meet their cooling needs. So too is urban greening, which was prioritized by the Government of Maharashtra in its recent climate change action plan. [11]

Omdurman, Sudan

Population  

2015: (Reliable data not available)
2019: (Reliable data not available)
Present: (Reliable data not available)

How to use the interactive map

Khartoum: Projected number of summer days with Tmax more than 25 degrees
Khartoum: Projected number of summer days with Tmax more than 35 degrees

Source: Climate Change Knowledge Portal, The World Bank Group, 2022


Between 2015 and 2019, Omdurman gained 0.48 square kilometers of built-up area at the expense of bare or sparse vegetation typical to the climate of the region.

The Omdurman-Khartoum region has grown rapidly over the past three decades and is projected to see over 20 days per month of dangerous heat between April and October annually between 2020 and 2039. In addition to heat, increased flooding over the past decade has also created challenges for urban residents. [12] With this in mind, the city has a unique opportunity to use urban planning and expansion processes to mitigate both urban heat and flooding risks at the same time, leveraging its water resources for nature-based urban cooling. 

São Paulo, Brazil 

Population  

2015:20,883,000 
2019:21,847,000 
Present: 22,374,333 

How to use the interactive map

Sao Paulo: Projected number of summer days with Tmax more than 25 degrees
Sao Paulo: Projected number of summer days with Tmax more than 35 degrees

Source: Climate Change Knowledge Portal, The World Bank Group, 2022


Between 2015 and 2019, São Paulo, Brazil increased its built-up area by 2.27 square kilometers and reduced its area of herbaceous vegetation by 1.1 square kilometers and its area of open forest by 1.03 square kilometers. The city also saw small reductions in its areas of cultivated and managed vegetation, bare or sparse vegetation, herbaceous wetland and closed forest.

In São Paulo, rapid urbanization is increasing the number of people living in informal settlements known as favelas. These are typically constructed to a low standard, often by residents themselves, and are often located on wasteland, marshy land, or in flood-prone areas.

The city experiences sustained temperatures above 25°C in the summer months and is also projected to see four days per month of dangerous heat between September and November every year, exposing these residents to significant risks from lack of access to cooling. Targeted efforts to mitigate these risks include land-use planning changes that prioritize green spaces near favelas, and heat-action planning that provides them with public cooling centres on days when temperatures exceed 35°C.

Shanghai, China 

Population  

2015: 23,482,000 
2019: 26,317,000 
Present: 28,309,043 

How to use the interactive map

Shanghai: Projected number of summer days with Tmax more than 25 degrees
Shanghai: Projected number of summer days with Tmax more than 35 degrees

Source: Climate Change Knowledge Portal, The World Bank Group, 2022


Between 2015 and 2019, Shanghai increased its built-up area by 8.96 square kilometers with a decrease of 0.78 square kilometers of shrubs, 1.32 square kilometers of herbaceous vegetation, 3.48 square kilometers of cultivated and managed vegetation, 0.16 square kilometers of herbaceous wetland, 0.16 square kilometers of open forest with evergreen broad leaf, and 3.38 square kilometers of open forest.

Shanghai has observed the highest increase in its built-up area among the major cities in the Critical 9 countries. The increase contributes to increased demand for air-conditioning and refrigeration systems, highlighting the need for energy-efficient and climate-friendly technologies. Demand can be expected to be particularly high in July and August, where temperatures are projected to exceed 35°C for three days each month.  

For its most vulnerable residents, green spaces, passive cooling, and more vegetation can provide relief while reducing the UHIE and minimizing the energy necessary for cooling needs. 

Chilling Prospects

Chilling Prospects 2022

Sustainable cooling for cities

Notes and references

[1] Global Land Cover, Copernicus. Land Cover Viewer (vito.be)
[2] Buchhorn, M. ; Lesiv, M. ; Tsendbazar, N. - E. ; Herold, M. ; Bertels, L. ; Smets, B. Copernicus Global Land Cover Layers — Collection 2. Remote Sensing 2020, 12, Volume 108, 1044. DOI 10.3390/rs12061044
[3] Q-GIS software was used, which is a free and open-source cross-platform GIS software application that supports viewing, editing, and analysis of geospatial data. Discover QGIS
[4] RStudio is an Integrated Development Environment (IDE) for R, a programming language for statistical computing and graphics. About RStudio - RStudio
[5] The U.N. Climate report’s five futures – decoded. Explainer: The U.N. climate report's five futures - decoded | Reuters
[6] Climate Change Knowledge Portal (CCKP). About us | Climate Change Knowledge Portal (worldbank.org)
[7] Ürge-Vorsatz, D., Petrichenko, K., Antal, M., Staniec, M., Labelle, M., Ozden, E., Labzina, E. Best-Practice Policies for Low Energy and Carbon Buildings. A Scenario Analysis. Research report prepared by the Center for Climate Change and Sustainable Policy (3CSEP) for the Global Buildings Performance Network. May 2012.
[8] Rural population – Mozambique, The World Bank, 2022. Link.
[9] Mozambique Receives $100 Million for its Maputo Urban Transformation Project, The World Bank, 2020. Link.
[10] Urbanization in contrasting cities, BBC, 2022. Link.
[11] The Hindu, 18 March 2022, Link.
[12] Andrea Zerboni et. al (2021) The Khartoum-Omdurman conurbation: a growing megacity at the confluence of the Blue and White Nile Rivers, Journal of Maps, 17:4, 227-240, DOI: 10.1080/17445647.2020.1758810

The power of passive cooling solutions in Bangladesh and Indonesia

SDG7 News

Across human comfort and safety and medical and agricultural cold chains, small- to mid-size cooling businesses are working to generate technological solutions and take advantage of new business models. This story about sustainable cooling solutions in action was originally published in Chilling Prospects 2021.

Assess your specific access to cooling risk score and identify sustainable cooling solutions with the new Cooling for All Solutions Tool.

Bangladesh is a tropical warm and humid country. Dhaka, the capital city, has approximately 16–18 million people, of whom about 40 percent live in low-income communities or slums. After becoming one of the finalists in the Million Cool Roofs Challenge in 2019, the Bangladesh team from the James P Grant School of Public Health (JPGSPH) and the Department of Architecture of BRAC University embarked on the work for deployment of cool roofs, a simple and sustainable cooling solution appropriate for houses in the slums and garment factories where the majority of the workers are female.

Cooling factories and schools in Bangladesh

The team selected two garment factories and 105 buildings, including a daycare centre and a school, in the Kerail slum on which to test the cool roofs, consisting of reflective paint. Implementation was initially challenging, and while the COVID-19 pandemic caused a delay, other issues also needed to be overcome. This included a lack of locally available paints that met reflectivity requirements, and the fact that some roofs were so thin that it was and the fact that some roofs were so thin that it was difficult to work on them and apply the paint, since roofs in Kerail are typically made from the least expensive and thinnest corrugated iron sheets. Initial results from implementation show significant impacts on temperature.

In one building the cool roof produced a dramatic decline in surface temperature of 12.3°C during times of peak temperature, demonstrating the efficacy of the cool roof in reflecting thermal energy. The cool roof also had the effect of reducing indoor air temperature during peak heat by 7.72°C. Crucially, cool roofs had the effect of keeping indoor air temperatures lower than outdoor temperatures, which exceeded outdoor air temperatures at peak heat prior to their application, and on average achieved a temperature reduction of 3.5°C in indoor temperatures relative to before the coating.

Cool roofs for low-cost housing in Indonesia

In Indonesia, a team from the Universitas Pendidikan Indonesia is applying cool roofs to homes, religious institutions, schools and factories, and is securing important impacts for these communities. In low-cost housing in Jakarta, cool roofs were applied to dwellings with clay tile and asbestos roofs. A sampling of the data shows that on warm days, with temperatures of 34°C and higher, the cool roofs reduced the indoor air temperature relative to outdoors by 2°C on a clay tile roof and 2.9°C on an asbestos roof. This effect alone can make a huge difference during a heatwave and provide thermal comfort benefits, which can be further enhanced with other passive solutions or fans. 

In an industrial building in Indonesia, a 5,200m² cool roof created a temperature reduction of 10.4°C for the 500 people working there as shift workers. With outdoor, noon-time temperatures of approximately 34°C at both measurement points, indoor air temperatures dropped to 30.4°C after the cool roof was applied compared to 40.8°C before it.

The impacts of the overall project are evident, not simply in terms of greater productivity for workers in an industrial building or people in low-cost housing. A survey of project beneficiaries indicated that 100 percent of the participants found the cool roof helpful or very helpful. Prior to the cool roof application, 94 percent of beneficiaries described temperatures as hot or very hot, while 100 percent indicated they were neutral, cool, or cold for them subsequently. 

Credit: James P Grant School of Public Health, the Department of Architecture of BRAC University, Bangladesh and the Architecture Study Programme, Universitas Pendidikan Indonesia

The Recover Better with Sustainable Energy Guide for South Asian Countries

Knowledge brief
Recover Better South Asia

Asia is a leader in global development and growth and some of the largest emerging economies are in the region, particularly in South Asia, which is home to more than 1.8 billion people. Countries in South Asia have made positive strides towards achieving the Sustainable Development Goals (SDGs), but the ongoing pandemic risks negating the progress made. It is estimated that 132 million people in South Asia could be pushed into extreme poverty due to loss of jobs and livelihoods as a result of the pandemic and the region’s economy is set to shrink for the first time in four decades.

While Asia as a whole has made significant progress in providing energy in recent years, South Asia still has large populations without access to electricity and clean cooking. Except for Bhutan and the Maldives, countries in South Asia need to increase their efforts in providing electricity access, particularly in rural areas.

Electricity access gaps in South Asian countries in 2018 (population in millions)

South Asia access gaps

There are an estimated 990 million people in South Asia without access to clean cooking solutions. The Maldives is the only country in the region to have more than 95 percent access to clean cooking, and while progress has been made by other South Asian countries, much more remains to be done.

This Recover Better with Sustainable Energy Guide highlights the opportunities, benefits and enablers that will help leaders guide their countries onto a more long-term sustainable and resilient development trajectory. As South Asian countries recover better, they can also lead by example by translating their recovery actions into updated Nationally Determined Contributions (NDCs) under the Paris Agreement.

See also: Recover Better series

Note: South Asian countries for this report are defined as member states of SAARC (South Asian Association for Regional Cooperation): Afghanistan, Bangladesh, Bhutan, India, the Maldives, Nepal, Pakistan and Sri Lanka.

This report is part of the series:  Recover Better with Sustainable Energy

South Asia should prioritize sustainable energy to address energy access gaps and accelerate economic recovery

News

As 2020 comes to an end and the world continues to face ongoing challenges from the COVID-19 pandemic, a new guide from Sustainable Energy for All (SEforALL) shows that South Asian countries can use this moment to strengthen sustainable energy policies and finance to accelerate their economic recovery, close energy access gaps and improve the lives of vulnerable populations in the region.

South Asia is home to some of the world’s most populous countries with the largest energy access deficits, particularly access to reliable electricity for productive use and clean cooking solutions. Though countries in South Asia have made substantial progress in recent years, according to the new Recover Better with Sustainable Energy Guide for South Asian Countries, the pandemic is putting this regional progress at risk and calls for countries to prioritize investments in sustainable energy. The latest guide from the Recover Better with Sustainable Energy series suggests South Asian countries should invest 25 percent of stimulus budgets in closing energy access gaps, improving energy efficiency and increasing deployment of renewable energy.

This investment will directly support faster progress on Sustainable Development Goal 7 (SDG7) - access to affordable, reliable, sustainable and modern energy for all by 2030. This progress is critical for South Asia as the latest data shows that 152 million people in the region lack access to electricity and 900 million lack access to clean cooking.

The region also has vast untapped potential for energy efficiency and renewable energy progress. Present trends show that South Asia will not meet the SDG7 targets of doubling their renewable energy share and increasing energy efficiency by 2030 if they do not act now.

An ambitious Recover Better strategy also makes economic sense for countries. By acting on the enabling measures put forward in the Recover Better guide, governments can benefit from increased GDP impact. For instance, if South Asia fulfils its currently estimated investment potential of USD 411 billion on renewable energy, the total added GDP effect to the economy will be 382 billion, cumulative by 2030. Increased investments will also further enhance and strengthen the regionalization of upstream and downstream manufacturing value chains for renewable energy technologies in South Asia, creating new jobs and localized economic growth.

“South Asian countries have made strong progress over recent years in closing access gaps by making it a political priority across government. Faced with a unique opportunity to Recover Better, countries should renew this commitment and invest in sustainable energy of the future that will unleash a range of economic, employment, commercial, health, and gender benefits for their citizens,” said Damilola Ogunbiyi, CEO and Special Representative of the UN Secretary-General for Sustainable Energy for All and Co-Chair of UN-Energy.

The new guide offers countries a set of enabling policy measures to adopt in their pandemic recovery and to channel stimulus packages towards, including:

  • Enhancing policy and institutional frameworks: Countries in the region need to strengthen their present policies and institutions further and enhance their frameworks to remove structural barriers to clean energy investments. There is a need to further improve the progress made in the region through capacity building, regional and international cooperation, and ease of doing business.
  • Investing in people: This should all be underpinned with an investment in human capital and the skills to meet the booming job potential in sustainable energy.
  • Investing in clean energy instead of fossil fuels: The region needs to focus more on the “sunrise” sector of renewable energy and move away from fossil fuels. To attract more investment, countries should move towards cost-reflective tariffs that do not disincentivize renewable energy.

If enacted, these enabling measures will help lead to cheaper energy provision, lower environmental impacts and improved agriculture, gender, and health outcomes. This re-set can also spark progress at the speed and scale needed to meet SDG7 and help put the global economy on a trajectory in line with the Paris Agreement and Sustainable Development Goals. Read the guide in full here.

SEforALL has developed The Recover Better with Sustainable Energy Guide series to support countries as they continue to develop their post-COVID-19 recovery plans and stimulus packages. The guide is part of a series that includes guides for countries in Africa, the Caribbean and Southeast Asia.

Note: South Asian countries for this report are defined as member states of SAARC (South Asian Association for Regional Cooperation): Afghanistan, Bangladesh, Bhutan, India, the Maldives, Nepal, Pakistan and Sri Lanka.

Photo credit: Asian Development Bank

Energizing Finance: Clean Cooking in Bangladesh

Case study
Energizing Finance Bangladesh cover

Despite more than 55 percent of the population using traditional cookstoves, the current landscape of Bangladesh offers a conducive market for clean cooking technologies, driven by increasing incomes, urbanization, and favourable government support.

Clean cooking access remains a pernicious problem affecting billions of people across the globe. Yet we show that of the little finance committed for clean cooking in 2018, it mostly benefitted just one country: Bangladesh. This case study - published in the research report Energizing Finance: Understanding the Landscape 2020 - provides insights into how the country has attracted finance and the challenges it faces in converting finance into impact for its citizens.

In Bangladesh, the eighth most populous country in the world, more than 60 percent of the population currently lives in rural areas and is mainly dependent on agriculture as a primary source of income (World Bank). As of 2018, almost 80 percent of households (of a total 35 million households) lacked access to clean cooking alternatives. This includes both rural and urban areas (CCA).

Following its partial success in 2013, the new National Action Plan for Clean Cooking in Bangladesh (2020–2030) is currently being formulated. The plan aims to achieve 100 percent clean cooking access by 2030 and posits a total investment requirement of USD 2.9 billion over the next 10 years.

The new National Action Plan for Clean Cooking must promote innovative business and financing models for different technologies, while ensuring an enabling environment with easy access to supply- and demand-side financing.

See also: Energizing Finance series

This report is part of the series:  Energizing Finance

Energizing Finance: Understanding the Landscape 2020

Main findings

  1. Finance for energy access remains far below the investment needed to achieve Sustainable Development Goal 7 (SDG7) by 2030
  2. Investments are not going to the countries with the greatest need
  3. Investment is not flowing to the right energy solutions, which can jeopardize the attainment of other Sustainable Development Goals
  4. The overall energy access investment portfolio continues to be dominated by a few large projects and a handful of capital providers
  5. Private sector investments remain elusive in the clean cooking sector

Despite significant advances over the last decade, electricity and clean cooking access continue to elude more than 789 million and 2.8 billion people, respectively, around the world. The COVID-19 pandemic has highlighted the severe implications that a lack of reliable energy access can have on healthcare systems, water and sanitation services, clean cooking, and communication and IT services. This has served as a wake-up call to accelerate action to achieve SDG7 - access to affordable, reliable, sustainable and modern energy for all - by 2030 to ensure that past progress is not reversed and that developing countries increase their resilience to future challenges.

The Energizing Finance: Understanding the Landscape report, developed by Sustainable Energy for All in partnership with Climate Policy Initiative and produced annually since 2017, provides a comprehensive analysis of commitments flowing to the two key areas of energy access: electrification and clean cooking. This fourth edition of the report tracks finance for electricity and clean cooking committed in 2018 to 20 Sub-Saharan African and Asian countries - known as the high-impact countries (HICs) - that together are home to more than 80 percent of people globally without energy access.

In addition to capturing finance commitments for energy access, this year's report provides deep-dive analyses of Rwanda and Bangladesh and proposes a framework to improve the accuracy and consistency of reporting finance for projects with gender equality objectives.

Year after year we continue to observe a widening cumulative gap between required and actual investment to achieve universal energy access in high-impact countries, with finance not flowing to those most acutely in need.

With less than a decade left to achieve universal energy access, we need to move far beyond a business-as-usual, incremental approach. This will require an unprecedented collaboration between donor and national governments, development finance institutions (DFls) and private investors to align all financing for SDG7.

We need innovation in policies and regulatory frameworks, institutions and instruments, and business models to speed up efforts. National governments should commit to domestic policies that prioritize sustainable solutions to support green recovery while ensuring efficient use of limited public budgets. Donors and DFls should deploy a wider range of instruments to manage, share and reduce risk, while working more closely with governments and the private sector to mobilize investment for energy access. It is especially crucial in the era of COVID-19, when public budgets and private investments are drying up, that donors fill the investment gaps rather than contribute to them.

While this report tracks the energy access financing landscape of 2018, its development has been influenced by the COVID-19 pandemic. The recommendations provided are intended to lay the foundations for long­term, green, resilient and inclusive growth. Many developing countries have achieved significant progress in recent years, and we must ensure that they continue to make similar advances despite current challenges.

Main findings

  • Finance for energy access remains far below the investment needed to achieve SDG7 by 2030: USD 41 billion of annual investment is required to achieve universal residential electrification, but only one third, or USD 16 billion, was tracked in the HICs in 2018. Finance for clean cooking tripled from USD 48 million in 2017 to USD 131 million in 2018 but remains substantially below the estimated annual USD 4.5 billion required to achieve universal access by 2030. With only marginal year-on-year increases in commitments for energy, it is becoming increasingly clear that the financing community is failing to deliver on SDG7.
  • Investments are not going to the countries with the greatest need: In 2018, USD 3.3 billion of electricity access finance was committed to the 14 HICs in Sub-Saharan Africa (SSA) - less than 20 percent of total finance targeting residential access in the HICs - while SSA accounts for 70 percent of people in HICs without electricity access. The six HICs with the lowest electricity access rates, where more than 70 percent of the population does not have access to electricity - Burkina Faso, Chad, Congo (DR), Madagascar, Malawi and Niger - were all in the bottom half of the HICs in terms of finance for electricity committed. Similarly, for clean cooking, 18 countries (excluding Bangladesh and Kenya) that are home to over 2.2 billion people without access to clean cooking solutions attracted only 25 percent of the investment tracked. Countries like Congo (DR) and Ethiopia, where 95 percent of the population lacks access to clean cooking, attracted less than 1 percent of the annual investment they needed.
  • Investment is not flowing to the right energy solutions, which can jeopardize the attainment of other SDGs: Investment in fossil fuel generated electricity has increased, locking countries into decades of carbon emissions, import dependency and stranded asset risk. Fossil fuels accounted for the largest portion of electricity finance commitments to HICs for the first time in at least six years, driven largely by grid-connected fossil fuel projects in Bangladesh. Meanwhile, financing for grid-connected renewables declined for the first time since 2013. Also, finance for mini­grids and off-grid solutions remained at less than 1-1.5 percent of the total finance tracked for electricity. This limited volume of investment is unacceptable in light of the collateral damage: issues of gender equality, economic opportunity, climate change, and protection of land and forests are all suffering from this inertia.
  • The overall energy access investment portfolio continues to be dominated by a few large projects and a handful of capital providers: This is particularly true of clean cooking investment, as it is dominated by public funding originating from a small number of institutions. For instance, Bangladesh alone accounted for 47 percent of total tracked clean cooking investment, arising mainly from two large projects financed by the World Bank Group and the Green Climate Fund.
  • Private sector investments remain elusive in the clean cooking sector: Private finance commitments increased only marginally to USD 32 million in 2018, from USD 21 million in 2017. However, unlike public finance that focuses mainly on improved cookstoves (ICS), private sector finance flowed to a range of modern or renewable fuels, such as ethanol, biogas and LPG. The overall lack of investment can be attributed to limited public finance to alleviate risk for private sector investors and to stimulate consumer demand.

Recommendations

  • Coordinated action from development finance institutions and donor governments is needed in Sub-Saharan Africa
  • Investment in renewable energy and transmission and distribution infrastructure should be accelerated to achieve energy access while maximizing synergies with the SDGs
  • Financing of fossil fuel projects as a means of closing the energy access gap should be terminated
  • Policy reform and the adoption of sustainable and innovative business models and financial instruments are important to accelerate deployment of mini-grids and off-grid solutions
  • National governments are instrumental in expanding clean cooking access through targeted subsidies and policy support
  • There is an urgent need to expand innovative clean cooking business models and financing mechanisms to a larger group of technologies

See also: Energizing Finance series

This report is part of the series:  Energizing Finance

Tracked finance for clean cooking in high-impact countries (USD million, 2018)

View full size diagram in Tableau here

To reflect the evolving realities of the energy access landscape, this year’s report has changed the
tracked HICs, as reported in the Tracking SDG7: The Energy Progress Report 2020 (IEA et al 2020).

For electricity, the high-impact countries (HICs) are:
Angola, Bangladesh, Burkina Faso, Chad, Democratic People’s Republic of Korea, Congo (DR), Ethiopia, India, Kenya, Madagascar, Malawi, Mozambique, Myanmar, Niger, Nigeria, Pakistan, Sudan, Uganda, United Republic of Tanzania, Yemen

For clean cooking, the high-impact countries (HICs) are:
Afghanistan, Bangladesh, China, Democratic People’s Republic of Korea, Congo (DR), Ethiopia, Ghana, India, Indonesia, Kenya, Madagascar, Mozambique, Myanmar, Nigeria, Pakistan, Philippines, Sudan, Uganda, United Republic of Tanzania, Vietnam

Enabling Energy Access from Village to Nation: The 2019 Poor People's Energy Outlook

Webinar
Date
15:00 CET
16 Dec 2019
End
16:30 CET
16 Dec 2019
Location
Online

Hosted by the People-Centered Accelerator Secretariat and led by PCA partner Practical Action, this webinar offered a deep dive into the drivers of and solutions to energy poverty. Presenters shared lessons learned from years of research under the annual Poor People’s Energy Outlook series.

The Poor People’s Energy Outlook 2019 is the culmination of four years’ research, exploring what it takes to realize the kinds of energy services that enable people to thrive despite limited energy access. The Practical Action report compiles and updates key messages and recommendations on energy access planning (PPEO 2016), financing (PPEO 2017) and delivering at scale, while also leaving no one behind (PPEO 2018).

It draws on primary research from community consultations in Bangladesh, Kenya and Togo, as well as analysis of energy access programs across Latin America, South Asia and sub-Saharan Africa; considering how to ramp up energy access from small-scale interventions to national and global levels, to ensure that, with just a decade to go until our SDG7 deadline, the transformational power of energy is universally enjoyed.

Panelists

  • Caroline McGregor, SEforALL
  • Lucy Stevens, Practical Action
  • Ute Collier, Practical Action
  • Dana Rysankova, World Bank
  • Drew Corbyn, GOGLA
  • Emma Colenbrander, Global Distributors Collective
  • Neha Juneja, Greenway Appliances

Energizing Finance: Taking the Pulse 2017 - Bangladesh, Ethiopia, Kenya, Myanmar and Nigeria

Based on nearly 100 in-depth interviews with senior-level officials from enterprises, non-governmental organizations (NGOs) and development finance institutions (DFIs) working in energy access—combined with economic and financial data from each country—this study illustrates how enterprises delivering access to electricity and clean cooking are being financed in Bangladesh, Ethiopia, Kenya, Myanmar and Nigeria. These countries represent five highly different energy access markets across Sub-Saharan Africa and Asia. They also belong to the 20 high-impact countries whose efforts to increase access to electricity and clean cooking can make the most difference on a global scale (IEA and World Bank, 2015).

This report is part of the series:  Energizing Finance

Energizing Finance: Understanding the Landscape 2017

This report aims to advance the understanding of finance directed toward the developing world’s energy sectors, covering both electricity and clean cooking. The report covers the 20 developing countries—referred to as the high-impact countries—that together are home to 80 percent of those living without access to modern energy globally. Given their weight in terms of unserved populations, they jointly provide a reasonable first-order approximation for the overall energy access situation globally.

This report is part of the series:  Energizing Finance