'Mission Mausam':
Innovations, Jobs & Opportunities
Deepti Subba
On 11th September 2024, the Union Cabinet gave the green light to 'Mission Mausam', a bold and visionary initiative with a substantial budget of
Rs. 2,000 crores over two years. This groundbreaking mission aims to transform India into a 'Weather Ready' and 'Climate Smart' nation. By supercharging our capabilities in weather and climate observations, modelling and forecasting, Mission Mausam aims to address long-standing gaps in the country's weather surveillance and climate data systems. The mission will be backed by cutting-edge technologies such as high-performance computing, AI-driven earth system models and advanced weather radars.
According to the Ministry of Earth Sciences, "Mission Mausam will be implemented in two phases over five years to significantly expand India's weather forecasting and climate prediction capabilities." The mission is designed to tackle the challenges posed by increasingly unpredictable weather patterns due to climate change, with a clear focus on improving observation networks and leveraging advanced technologies like Artificial Intelligence (AI) and High-Performance Computing (HPC).
Phase 1: Expanding the Observation Network
The first phase, which will run until March 2026, focuses on expanding India's meteorological observation infrastructure. The India Meteorological Department (IMD) plans to install approximately 70 new Doppler weather radars, which is a significant increase over the 39 Doppler radars currently in operation. Additionally, the mission will introduce 10 wind profilers and 10 radiometers, marking a major technological upgrade, as India has never set up a wind profiler before.
Doppler radars are essential in tracking weather patterns, especially storms and heavy rainfall, while wind profilers will monitor wind patterns at different altitudes. These additions will improve the horizontal resolution of Numerical Weather Prediction (NWP) models, from the current 12 kilometers down to
6 kilometers, which will allow for more accurate local weather forecasts. High-performance computers will also be deployed to process vast amounts of weather data in real- time, significantly enhancing forecast precision.
Phase 2: Enhancing Observational Capabilities
The second phase of the mission will extend the scope of observations through the addition of satellite systems and aircraft- based monitoring technologies. This will further improve the country's ability to track and predict large- scale weather patterns. The expanded use of satellite technology will provide continuous, real- time observations, critical for early warnings of extreme weather events.
This phase will also support the creation of cloud chambers, a technology designed to study cloud behaviour, particularly in the context of increasing temperatures and their effects on cloud dynamics. The insights gained from this research will improve weather models, aiding in the development of strategies for cloud seeding- where specific substances are introduced into clouds to enhance or suppress rain in targeted regions.
By the end of the five-year period, India's weather monitoring infrastructure will be robust enough to not only forecast but manage weather patterns. The mission aims to provide hyper- local weather predictions down to the panchayat level and enhance air quality forecasts in major cities by up to 10%.
Economic and Societal Impact: Saving Lives and Boosting the Economy
Mission Mausam's technological interventions are expected to have far-reaching economic implications. India's economy is heavily dependent on sectors that are vulnerable to weather variability-agriculture, aviation, infrastructure and disaster management being prime examples. By offering more accurate and timely forecasts, the mission will mitigate the socio- economic impacts of climate change, saving potentially billions of rupees in losses caused by extreme weather events.
For instance, the ability to predict monsoon patterns and droughts with greater precision will be invaluable to India's agricultural sector. Improved weather data will also aid in disaster management, ensuring quicker responses to cyclones, floods and droughts. The aviation industry, which relies heavily on weather forecasts for flight safety and efficiency, will also benefit from Mission Mausam's technological innovations. The mission's economic benefits will extend beyond damage mitigation, contributing to increased productivity and more robust infrastructure planning.
Areas in Which Mission Mausam Will Catalyse Job Generation
One of the most exciting aspects of Mission Mausam is its potential to generate a wide array of career opportunities in science, technology and engineering. As the mission progresses, demand will rise for professionals skilled in atmospheric sciences, satellite technology, AI and high- performance computing, creating new employment avenues across both the public and private sectors.
Meteorology and Atmospheric Sciences: The mission will generate a higher demand for meteorologists, climatologists and atmospheric researchers who will analyse real- time data and study long- term climate changes. The focus on climate processes will offer expanded opportunities in climate modeling and weather prediction research.
Remote Sensing and Satellite Technology: With the launch of advanced satellites and the use of radars, satellite technicians and remote sensing specialists will play key roles in monitoring weather systems and contributing to disaster management. These professionals will be instrumental in interpreting satellite data and providing actionable insights.
Data Science and Artificial Intelligence (AI): The integration of AI into weather forecasting will lead to an increasing demand for data scientists and AI/ML engineers. These experts will analyse the vast amounts of data generated by weather stations, satellites and ground-based radars, refining predictive models to improve weather and climate forecasts.
Environmental Science and Disaster Management: As extreme weather events become more frequent due to climate change, environmental scientists and disaster management professionals will be in higher demand. These experts will assess the ecological impacts of climate change and devise strategies for disaster preparedness and recovery.
Instrumentation Engineering: Mission Mausam will create opportunities for instrumentation engineers who will design and maintain advanced meteorological instruments such as wind profilers and radiometers. The mission also requires skilled system integration engineers to harmonise complex weather forecasting systems with satellite data and computational infrastructure.
High- Performance Computing (HPC): Enhancing computational capacity is a cornerstone of Mission Mausam, creating careers in high- performance computing and IT infrastructure. Specialists in cloud computing, cybersecurity and data storage will be vital for managing the massive volumes of data generated.
Public Policy and Communication: The success of Mission Mausam depends not only on technological advancements but also on effective communication of weather forecasts and climate data to the public. Science communicators and climate policy analysts will be essential in ensuring that accurate information reaches policymakers, businesses and the general public.
Entrepreneurial Opportunities
The market offers a vast scope for innovation in cloud seeding, radar technology, satellite-based monitoring and weather balloons, along with specialised applications in sectors such as agriculture, water management, aviation and defence.
Cloud Seeding Equipment: Cloud seeding technology is seeing widespread adoption, making it a lucrative entry point for businesses aiming to provide services or develop new seeding agents and equipment. Cloud seeding equipment holds a dominant position in the market, especially in arid and semi- arid regions where enhancing precipitation can directly impact agriculture and water management. Entrepreneurs can capitalise on the demand for effective cloud seeding technology to stimulate rainfall, offering solutions for crop irrigation, groundwater replenishment and climate risk mitigation.
Weather Radars: Entrepreneurs focusing on developing radar systems that deliver high- resolution, accurate data can tap into the increasing demand for precise weather monitoring, especially in aviation and defence sectors. Innovations such as AI-enabled predictive analytics can enhance radar capabilities, providing a competitive edge.
Weather Balloons and Satellites: Weather balloons, while a traditional method, remain vital for collecting data on atmospheric parameters. There is scope for improving the cost- effectiveness and reliability of these systems, making them attractive for startups focusing on lightweight and more efficient designs. Weather satellites, equipped with advanced imaging technologies, offer comprehensive weather and climate data globally. Entrepreneurs can explore opportunities in satellite launches, creating data analysis platforms or selling high- resolution imaging to industries dependent on climate data.
Technological Innovation in Ground-Based and Airborne Platforms: Ground- based and airborne platforms, including drones and cloud- seeding aircraft, are becoming increasingly essential for targeted weather interventions. Startups can innovate by developing autonomous drone- based weather modification platforms or integrating IoT and AI technologies to enhance weather observation capabilities. These technologies are seeing growing adoption in disaster management, environmental monitoring and research sectors, offering diversified avenues for growth.
Applications and Market Potential: The applications of weather modification technologies are vast, particularly in agriculture and water management. Entrepreneurs offering services to mitigate the impacts of drought or improve crop yields through cloud seeding have significant potential in regions grappling with erratic rainfall patterns. Moreover, the aviation sector, requiring precise weather data to enhance flight safety and operational efficiency, presents opportunities for companies specialising in advanced weather forecasting tools. Similarly, defence sectors globally are keen on integrating weather modification technology into mission planning, further expanding the market potential.
The weather modification and forecasting market presents a myriad of entrepreneurial opportunities, particularly for businesses that can innovate across cloud seeding, radar systems, satellite monitoring and AI- driven forecasting technologies. Moreover, with global concerns over climate change and water scarcity mounting, the need for precision weather modification is only set to rise, creating sustainable business ventures and career opportunities in this evolving industry.
Controlled Weather Modification:
Scope and Implications
With Mission Mausam, the IMD will be equipped to push the boundaries of meteorological science by not only to studying weather patterns but also gaining the ability to control them. This objective includes cloud seeding and other forms of weather modification, with the long- term goal of mitigating the impact of extreme weather events.
Establishing India's First Cloud Experiment Laboratory
The cornerstone of Mission Mausam is the establishment of a first-of-its-kind cloud experiment laboratory at the Indian Institute of Tropical Meteorology (IITM) in Pune. This facility is designed to simulate cloud dynamics, allowing scientists to study the processes of cloud formation, precipitation and their interaction with atmospheric conditions. The lab, scheduled to be operational by March 2026, will provide valuable insights into how clouds can be manipulated to either suppress or enhance rain, hail, thunderstorms and fog.
The laboratory would enable scientists to simulate various atmospheric conditions and analyse how different parameters, such as temperature and moisture, affect cloud behaviour. This facility will help scientists refine cloud seeding techniques, allowing for more targeted weather modification efforts.
The IMD will float tenders for private and government laboratories to develop specialised equipment, which will be used to analyse clouds and manipulate their properties. By altering factors such as raindrop size, ice crystal distribution and humidity levels, scientists aim to enhance the effectiveness of cloud seeding.
Cloud Seeding in Practice: Utility and Limitations
Cloud seeding is not new and several countries have already experimented with it on a large scale. China, Russia and the United Arab Emirates (UAE) have all employed cloud seeding to manage water resources, suppress wildfires and enhance rainfall. China, in particular, has developed a comprehensive cloud seeding programme, deploying thousands of planes and rockets to induce rainfall. In 2022, China reportedly caused 8.56 billion metric tonnes of additional rainfall in the Yangtze River basin through cloud seeding. This extensive use of the technology underscores its potential but also highlights its limitations.
The UAE, which has been experimenting with cloud seeding since the 1990s, aims to mitigate its water scarcity issues by enhancing rainfall in its arid landscape. Similarly, Russia has used cloud seeding to suppress heatwaves and wildfires, while Thailand has experimented with it to address drought conditions. While these countries have made significant strides, the results are often inconsistent and the impact of such large-scale interventions on local ecosystems is still not fully understood.
In India, cloud seeding could provide critical relief in drought- prone regions and reduce the frequency of extreme weather events such as hailstorms.
Once operational, the cloud experiment laboratory in Pune will position India at the forefront of global weather modification efforts. By 2031, the IMD plans to conduct large- scale experiments aimed at artificially enhancing or suppressing not just rainfall but also hail, thunderstorms, fog and even lightning. The ability to alter cloud properties, such as droplet size and ice crystal formation, will allow for more precise interventions, particularly in localised areas. These modifications could play a critical role in protecting agricultural crops, mitigating flooding and even preventing urban waterlogging.
A Cautious Path Forward
Yet, as India embarks on this ambitious project, there are several scientific and ethical questions that must be addressed. One of the primary concerns is the long- term environmental impact of injecting substances like silver iodide into the atmosphere. While these substances can enhance precipitation, their accumulation in the environment could lead to unintended consequences, such as soil and water contamination. Moreover, the unpredictability of weather patterns, exacerbated by climate change, means that technology will need constant updates to remain effective.
The success of the project will ultimately depend on the continuous refinement of technology, careful consideration of environmental impacts and the establishment of robust regulatory frameworks.
As India moves forward with its weather modification efforts, it joins a global community of nations exploring the possibilities of controlling the climate. However, it is essential to remember that weather modification, no matter how advanced, is unlikely to be a comprehensive solution to the challenges posed by climate change. Rather, it should be seen as one tool among many in the broader effort to build climate resilience and protect vulnerable populations from the increasingly unpredictable forces of nature.
What is Cloud Seeding?
Cloud seeding, also known as Rain Enhancement, is a weather modification technique that aims to increase precipitation from specific clouds under ideal conditions. By injecting clouds with tiny particles like silver iodide, this process encourages moisture to form rain droplets, potentially increasing rainfall by up to 25% under optimal conditions.
Why is Cloud Seeding Important?
Cloud seeding holds immense significance in addressing global water scarcity, especially in the context of climate change. This technology helps to mitigate the impact of prolonged droughts by boosting rainfall in arid regions. It also contributes to ecosystem restoration and replenishes depleted aquifers, reducing the need for unsustainable groundwater extraction. Essentially, cloud seeding strengthens water resource management and enhances climate resilience, making it a valuable tool in combating climate change.
Cloud Seeding Market Size
The global cloud seeding market size was valued at USD 375.6 million in 2023 and is projected to grow from USD 406.4 million in 2024 to USD 684.2 million by 2032, exhibiting a CAGR of 6.7% during the forecast period. Asia Pacific dominated the cloud seeding market with a market share of 77.93% in 2023.
Global Trends
1. Asia Pacific
Asia Pacific held the largest market share in 2023, with a market value of USD 292.7 million. The region ranked 1st due to increasing natural hazards and environmental pollution, with China leading cloud seeding efforts to combat droughts and power shortages.
2. North America
North America captured the second-largest market share in 2023. The region's strong position is driven by significant government investments and the presence of key industry players, placing it in 2nd position.
3. Europe
Europe is expected to grow moderately during the forecast period, with rising concerns over wildfires and agricultural enhancement. As a result, the region held the 3rd position in the global cloud seeding market in 2023.
4. Middle East & Africa
The Middle East & Africa is projected to be the fastest-growing region over the forecast period. High adoption rates of cloud seeding for agriculture and tourism made this region the 4th dominant player in 2023.
5. Latin America
Latin America is expected to experience significant growth due to increasing drought and heatwave challenges. In 2023, the region ranked 5th in the global cloud seeding market.
(The author is a career counsellor and web content writer. Feedback on this article can be sent to feedback. employmentnews@gmail.com)
Views expressed are personal.