Resilience  

Climate-related risks like floods, droughts, cyclones, wildfires, extreme temperatures, and more

India is experiencing an increase in the frequency and magnitude of climate-related disasters and extreme weather events, such as floods, droughts, cyclones, heatwaves, and wildfires. In 2019, it was the 7th most vulnerable country to climate change. Such climate-related risks disproportionately impact low-income communities in rural and urban areas, worsening poverty, disrupting access to essential services, damaging property, and aggravating inequalities.

To secure the lives, health, and safety of its inhabitants, India needs climate solutions that build resilience to climate risks, placing vulnerable groups such as low-income communities, women and children, farming and fishing communities and others dependent on subsistence means of livelihood and climate-sensitive sectors, at the centre.

Challenge

The impacts of climate change vary with India’s diverse topography and exacerbate a multitude of physical risks. These include hydro-meteorological disasters (floods, droughts, cyclones, heat waves, cold waves, avalanches), glacial lake outbursts and landslides in mountainous regions, wildfires, sea level rise, erratic rainfall, and more.

Over 75% of India’s districts are extreme weather hotspots; vulnerable to floods, droughts, and cyclones. Climate change is increasing the incidence of floods due to unpredictable, high-intensity rainfall; over 91% of India’s flood-exposed districts are vulnerable to extreme floods today. Inundation and waterlogging are aggravated by poorly planned settlements, encroachment of water bodies, and unsustainable land use change. Over 70% of India’s drought-exposed districts are vulnerable to extreme droughts (meteorological, hydrological, or agricultural), due to short or erratic monsoons, over-exploitation of groundwater levels, and poor water conservation, or poor cropping and agronomic practices, among other factors. Climate change is also altering the vulnerability landscape – extreme drought-prone areas are now also susceptible to floods and/or cyclones. Similarly, while the east coast of India has traditionally experienced extreme cyclones, the west coast is seeing an increased intensity and frequency of cyclones due to climate change, and over 85% of India’s cyclone-exposed districts are now prone to extreme cyclones. India’s hotspot districts are thus increasingly susceptible to more than one hydro-meteorological disaster, adding to climate risk uncertainties in forecasting.

In addition, India is at risk of breaking the human survivability limit for heat, which could negatively impact the health and productivity of the 380 million people (75% of India’s workforce) dependent on heat-exposed labor as well as those living in poor informal settlements. The increasing frequency of heatwaves could halt or even reverse progress on income and food security, gender equality, and poverty; this is particularly concerning for metropolitan areas, estimated to house 675 million people by 2035, which are prone to the urban heat island effect. Furthermore, wildfires are getting bigger and hotter as landscapes get drier, while heavy rainfall and poor water retention by soil are increasing the incidence of landslides in hilly terrains. Rapid glacier retreat in the Himalayas is also increasing the threat of glacial lake outbursts and flash floods.

While the factors increasing exposure to these risks vary, a key driver across several risks is change in land-use/land cover (LULC) such as deforestation, reduced forest cover, and unsustainable agriculture. This contributes to micro-climatic changes, further aggravating the intensity and frequency of risks.

The impacts of these diverse risks are severe. Sudden-onset events like floods, cyclones, and wildfires result in widespread destruction to property, natural ecosystems and biodiversity; loss of human and animal lives; and disruption of access to energy, water, and food. Slow-onset events like droughts also result in deterioration of soil health, depleted water levels, low agricultural production, high human and livestock mortality, malnutrition/starvation; sea level rise leads to increased soil salinity, destruction of property, and forced retreat inland; and heat waves and heat stress have deleterious impacts on health and economic productivity.

Accompanying negative social and economic impacts across several risks include:

  • loss of livelihoods;
  • income reduction and higher indebtedness;
  • climate-induced temporary displacement or permanent migration;
  • disruption of essential services like education, healthcare, and quality nutrition; and
  • spread of infectious/vector-borne diseases and lower immunity.

Although not attributed only to climate change, India experienced extreme weather events on 314 days in 2022, claiming at least 3,026 human lives and 69,899 animals, affecting at least 1.96 million hectares of crop area, and destroying over 423,249 houses. Floods and storms alone caused USD 7.6 billion in economic damages in 2021, and climate-induced loss and damage are likely to increase as the planet warms.

Climate change disproportionately exacerbates risks for those communities who are already facing multi-dimensional socio-economic challenges, whether it is gender inequality, poverty, food insecurity, or conflict. Women and the elderly are worst affected; they bear the brunt of climate shocks and are subject to further drudgery and safety risks when faced with forced migration or displacement. Low-income communities dependent on subsistence-based livelihoods are pushed into debt traps when disasters hit, unable to recover due to a lack of viable livelihood/relocation alternatives, damage to property, and a lack of disaster insurance.

These problems demand strong and urgent climate resilience for India’s most vulnerable. However, building resilience to these risks, through improved disaster preparedness and response, faces several challenges in India. Existing response strategies are episodic and are often missing local context, and due to slew of factors, the implementation of local disaster management plans can be inefficient. Consulting local communities is a crucial foundation for effective risk governance under the Sendai Framework for Disaster Risk Reduction, but they are often excluded from decision-making and planning. There is also a lack of information and awareness of micro-climate risks, due to an absence of granular data, hindering accurate forecasting and early warnings. Further, as development is often not informed by local climate risks, new development poses added risks for residents if approached in an unsustainable manner. Such development can also pose a threat to natural ecosystems and undervalue the significance of nature-based solutions for disaster risk reduction. Finally, loss and damage assessment does not account for all losses, including non-economic losses, and a lack of holistic data makes it difficult to provide effective disaster insurance, compensation, or relief measures – further impoverishing affected communities.

Solution

Increasing climate risks demand solutions that build climate resilience. These solutions enhance the ability of vulnerable communities to anticipate, prepare for, and respond to climate-induced natural hazards (both sudden-onset and slow-onset).

Climate resilience includes a crucial component of adapting to climate change impacts with growing awareness about climate risks, along with disaster risk reduction and preparedness, with the aim to secure lives, property, and opportunities for communities in disaster-prone areas.
Secure lives and property in
disaster-prone areas
Increase community awareness
about climate risks
Improve disaster risk reduction, preparedness, and response

Range of responses 

Data and technological responses improve availability and access to granular risk-specific data across geographies and forecasting/prediction of risks and support improved disaster preparedness and response.
These include:

  • Localised risk and micro-climate vulnerability assessments at sub-district, district, and taluka levels;
  • Increased use of spatial data (GIS modelling/remote sensing), aerial surveys, and Artificial Intelligence to evaluate climate hazards and improve forecasting (such as mapping of wildfire-prone areas, or predictive risk modelling for droughts, cyclones, and heatwaves);
  • Local wireless early warning systems combined with alert systems embedded within social media and mobile networks, or early warning mobile applications;
  • Dissemination of weather-based advisories or forecasting in regional languages on real-time basis, through community-run radio stations;
  • Micro-Automatic Weather Stations that offer automated weather predictions to save human labour and improve accurate forecasting in remote areas, through frequent and local readings
  • Digital platforms/applications to capture real-time loss and damage directly from affected individuals and communities, combined with social media/online data and aerial surveys, and supplement information available to government authorities and financial institutions.
Climate-resilient infrastructure responses protect humans and animals, such as livestock and poultry, when risks are triggered, through climate-friendly innovation and design for houses and community infrastructure.
These build resilience to risks like heat, droughts, floods, cyclones, and glacier melt, and include:

  • Building climate-friendly housing across heat hotspots, such as modern mud houses/bamboo houses and promoting cool roofs (using solar-reflective white paint, mosaic, membrane, or coconut husk/paper waste layer);
  • Increasing access to water by repairing tubes, wells; reviving community rainwater harvesting structures; building public drinking fountains;
  • Establishing public shelters or cooling centres, especially for the most vulnerable groups (women, elderly, migrant workers, street vendors, etc.);
  • Constructing hard coastal protection measures like bio-dykes or embankments to guard against sea level rise and floods;
  • Regularly clearing natural or engineered drains of silt and solid waste;
  • Constructing and maintaining disability-friendly multi-purpose flood/cyclone shelters that are accessible via good roads, integrated with rainwater harvesting/storage tanks and solar panels to secure energy and water access, and can accommodate livestock;
  • Building flood-resilient/cyclone-resilient/multi-hazard resilient housing, for example, on raised plinths/platform, with stronger housing material (bricks instead of mud to survive strong winds and floods), combined with materials like jute/bamboo that are easy to replace or dismantle; and reinforced with concrete stumps to make them sturdy;
  • Developing climate-resilient infrastructure standards;
  • Constructing artificial glaciers to secure water supply in the Himalayan regions.
Green infrastructure responses include nature-based solutions that mitigate climate risks and increase resilience to their impacts.
Illustrative examples include:

  • Enhancing green and blue cover to combat heat stress, restoring and rejuvenating water bodies, growing peri-urban gardens/forests, using green roofs;
  • Restoring mangroves, and coastal ecosystems, and leveraging coastal bio-shields to safeguard against cyclones and sea level rise by reducing wave energy and storm surges;
  • Promoting sustainable afforestation, fortifying houses/settlements with water-thirsty/resistant plants (bamboo, banana) to prevent soil erosion and soak up excess flood water.
Community-based responses focused on social resilience at the community/village/city-levels improve disaster preparedness and monitoring, increase community awareness, and improve access to finance for emergencies.
Disaster preparedness responses include:

  • Developing disaster risk reduction plans for the most vulnerable hotspots and populations, through heat action plans or flood management plans;
  • Developing community-based strategies for natural resource management (such as for urban rivers/forests) in consultation with local authorities;
  • Creating hyper-local contingency plans at all levels that identify at-risk areas and incorporate access to food, water, energy and healthcare;
  • Preparing risk monitoring checklists or setting up decentralised risk monitoring platforms/committees, especially for slow-onset events like drought, and training panchayats or community leaders to monitor the indices;
  • Training community members with well-defined roles and responsibilities to devise and implement community-based early warning systems.
Community awareness responses include:

  • Training local women or healthcare workers like ASHA workers and Anganwadi workers to disseminate information about local climate risks and contingency plans, especially to vulnerable groups, and identify and respond to health risks that are exacerbated by climate change, including heat stress related illnesses and vector-borne diseases;
  • Increasing public dissemination of information about local climate risks, through public announcements, live hoardings, digital modules, etc.;
  • Implementing targeted awareness campaigns for vulnerable groups, including door-to-door or at health centres for women, and at schools for children;
  • Implementing awareness campaigns regarding beneficial climate-adaptive lifestyle/work behaviours, such as shifting work schedules, increasing access to shade and water, and implementing rest breaks for heat-exposed workers.
Disaster financing responses include:

  • Providing disaster insurance or loss and damage compensation/finance based on real-time assessment of impacts;
  • Providing just-in-time or anticipatory cash transfers to households in climate hotspots on the notification of an impending disaster or when key indices are triggered, to aid preparedness and response;
  • Creating a disaster and early warning fund to ensure timely and immediate response for affected communities.

Target groups

All communities in the country, particularly those disproportionately impacted by extreme weather, such as low-income communities, women, children, elderly, and migrant workers/labourers.
Low income communities
Women
Children
Elderly
Migrant workers/labourers 

UN Sustainable Development Goals

Key considerations

Design and implement climate solutions based on local risks

Solutions must be context-specific, with activities attuned to community needs and local environmental contexts. A profiling of local-level climate risks must be the starting point for every project; this can be supplemented with secondary data such as CEEW’s Climate Vulnerability Index or State Action Plans on Climate Change (SAPCCs) to assess the degree of vulnerability. Further, place-based vulnerability assessments, covering social, economic, environmental, institutional and governance factors, and integrating the local community’s perception of risks, can help ground truth secondary vulnerability data.

Leverage indigenous knowledge systems to build solutions

Solutions must be bottom-up and people-centered. Indigenous knowledge and local community wisdom must be taken into consideration while designing adaptation and resilience solutions, and to address maladaptation, using tools like CRiSTAL (Community-based Risk Screening Tool – Adaptation and Livelihoods) or WOTR’s CoDrIVE.

Prioritise disaster preparedness to save lives and money

Instead of only providing resources for emergency response after a natural hazard has occurred, funders must invest in understanding local climate risks and help communities prepare for pre-emptive and early action. Disaster preparedness and disaster risk reduction (DRR) are cost-effective and save lives and resources required for aid/response; for example, every dollar invested in DRR can result in savings of USD 3 to 15 in disaster losses.

Prioritise nature-based solutions to address climate risks

Nature-based solutions must be prioritised in addressing climate risks. As a blend of grey and green infrastructure typically provides the greatest resilience, grey infrastructure can be embedded with green infrastructure, with the aim of moving towards green solutions. For example, modular roofs are a low-cost solution to heat in urban areas, which can over time be replaced or combined with green roofs as they become more universal and affordable; biomaterials (including locally available ones like mud, straw, etc.) can also replace traditional raw materials for infrastructure. Cultural preferences of people for spatial design in different parts of a state, and local availability of materials must also be accounted for while choosing building materials. In many cases, nature-based solutions can also be layered with a livelihoods approach, to generate local employment and engage local communities.

Build resilience through inclusive MEL frameworks

The uncertain context of climate risk management often hinders standard indicators and universal metrics for measurement, evaluation, and learning (MEL). MEL frameworks developed should be people-based, informed by foundational principles such as impact, quality, ownership, complementarity, and equity (like the InsuResilience Pro-Poor Principles), and gradually build resilience to climate change.

Resilience - Projects