Recently, India clarified that the requirement of obtaining a certificate of inspection from the Export Inspection Council (EIC) for rice exports is applicable only for exports to the European Union (EU), United Kingdom, Iceland, Liechtenstein, Norway, and Switzerland.

About Export Inspection Council (EIC)

The Export Inspection Council (EIC) was established by the Government of India under Section 3 of the Export (Quality Control and Inspection) Act, 1963. It functions as India’s official export certification authority responsible for maintaining the quality and safety of products exported from the country.

The primary objective of the EIC is to promote the healthy development of India’s export trade by ensuring that exported goods conform to the standards required by importing nations.

Role and Importance of EIC

The Export Inspection Council plays a crucial role in strengthening India’s credibility in international trade. By certifying the quality and safety of exported products, it helps Indian exporters gain acceptance in global markets.

The EIC ensures that products notified under the Export (Quality Control and Inspection) Act, 1963 comply with the regulations and standards prescribed by importing countries. This is especially important in sectors such as food exports, where strict sanitary and quality norms are followed internationally.

Functions of Export Inspection Council

One of the major functions of the EIC is to provide mandatory certification for several food products exported from India. These include products such as fish and fishery products, dairy products, honey, egg products, meat and meat products, poultry meat products, animal casings, gelatine, ossein, crushed bones, feed additives, and premixes.

Apart from mandatory certification, the EIC also offers voluntary certification services for other food and non-food products to improve their marketability and international acceptance.

The council works to ensure that Indian export products meet global standards related to quality, hygiene, and safety.

Export Inspection Agencies (EIAs)

The EIC functions through a network of Export Inspection Agencies (EIAs) located in major cities such as Mumbai, Kolkata, Kochi, Delhi, and Chennai. These agencies are supported by around 30 sub-offices across the country.

The EIAs are equipped with modern NABL-accredited laboratories, which conduct scientific testing and quality verification of export products.

Administration and Structure

The Export Inspection Council is headed by a Chairman, while the day-to-day administration is managed by the Director of Inspection and Quality Control, who acts as the Executive Head of the Council.

The headquarters of the EIC is located in New Delhi, and it functions under the Ministry of Commerce and Industry.

Significance of EIC in International Trade

The Export Inspection Council is extremely important for maintaining India’s reputation as a reliable exporter in global markets. Certification by the EIC helps prevent the rejection of Indian products abroad and ensures compliance with international trade regulations.

 

Recently, the Deendayal Port Authority (Kandla Port) enhanced its methanol bunkering capabilities, marking an important step in India’s transition towards cleaner energy and the development of global green shipping corridors.

About Methanol

Methanol, also known as wood alcohol, is the simplest form of alcohol with the chemical formula CH₃OH. It is a light, colorless liquid widely used in industrial applications and increasingly being explored as an alternative fuel source.

Production of Methanol

Methanol is generally produced through the steam reforming of natural gas. In this process, natural gas is converted into a synthesis gas (syngas) containing hydrogen and carbon monoxide.

This synthesis gas is then passed through a reactor in the presence of a catalyst, where it undergoes chemical reactions to produce methanol and water vapour.

Apart from natural gas, methanol can also be produced using other carbon-based feedstocks such as biomass, coal, and industrial waste gases, making it a flexible energy option.

Properties of Methanol

Methanol appears as a colorless and fairly volatile liquid with a faintly sweet smell similar to ethyl alcohol. It mixes completely with water and burns with a clean flame.

One of its major characteristics is its high-octane rating, which makes it a suitable substitute for conventional fuels like petrol in certain transportation systems.

Methanol is also considered a clean-burning fuel, as it produces lower levels of harmful pollutants compared to many fossil fuels.

Applications of Methanol

Methanol has a wide range of industrial and commercial applications. It is extensively used in the manufacture of chemicals, plastics, paints, adhesives, and synthetic materials.

It is also used as a solvent in industrial processes and helps remove water contamination from automotive and aviation fuels.

In recent years, methanol has gained importance as an alternative transportation fuel, particularly in the shipping industry, because it can reduce emissions from marine vessels.

Benefits of Methanol

One of the biggest advantages of methanol is that it can serve as an alternative to conventional transportation fuels such as gasoline and diesel. Its cleaner combustion process helps reduce air pollution and greenhouse gas emissions.

Methanol also has a lower production cost compared to many other alternative fuels, making it economically attractive for industries and transport sectors.

Another important benefit is improved safety. Methanol has a lower risk of flammability than gasoline, which makes its storage and handling relatively safer.

Methanol further contributes to energy security because it can be produced from multiple domestic sources such as biomass, coal, and natural gas. This reduces dependence on imported crude oil and supports energy diversification.

Importance in Green Shipping

The growing use of methanol in ports such as Kandla Port is significant for the future of green shipping. Many countries are now promoting methanol-powered ships because methanol emits fewer pollutants compared to traditional marine fuels.

India’s investment in methanol bunkering infrastructure can strengthen its role in international maritime trade while supporting global efforts to reduce carbon emissions from the shipping sector.

 

 

Recently, North Korea conducted a series of weapons tests, including the launch of the Hwasong-11Ga missile fitted with a cluster munition warhead. The test has drawn international attention because of the missile’s advanced strike capability and the controversial nature of cluster munitions.

About Hwasong-11Ga

The Hwasong-11Ga, also known in Western countries as the KN-23, is a short-range ballistic missile developed by North Korea. It is considered one of the country’s most advanced tactical missile systems and is designed to deliver high precision strikes against enemy targets.

The missile is a single-stage, solid-fuel missile, which means it can be launched quickly and requires less preparation time compared to liquid-fuel missiles. This increases its survivability and operational flexibility during conflict situations.

The Hwasong-11Ga is approximately 7.3 metres long and has a diameter of about 0.9 metres. It is capable of carrying different types of warheads, including nuclear, chemical, or conventional warheads, weighing nearly 500 kilograms.

One of the major strengths of this missile is its high accuracy. It has a range of around 600–700 kilometres and a Circular Error Probable (CEP) of about 5–30 metres, meaning it can strike targets with considerable precision.

Cluster Munition Warhead

The recent missile test became especially significant because the missile was reportedly fitted with a cluster munition warhead. Cluster munitions are highly controversial weapons used in modern warfare.

A cluster bomb or missile releases dozens or even hundreds of smaller explosive submunitions while still in the air. These submunitions spread over a wide geographical area and explode upon impact.

Because they affect a large area without distinguishing between military targets and civilians, cluster bombs are often referred to as the “devil’s weapon.” Their indiscriminate nature makes them extremely dangerous, particularly in populated regions.

Another serious concern is that many of the smaller bomblets fail to explode immediately. These unexploded submunitions remain on the ground as unexploded ordnance, posing long-term threats to civilians, especially children and farmers, even years after a conflict has ended.

Strategic Importance of Hwasong-11Ga

The Hwasong-11Ga strengthens North Korea’s tactical military capabilities by providing a missile system that combines mobility, speed, accuracy, and destructive power. Its ability to carry different warheads increases its strategic significance in regional security dynamics.

The missile’s solid-fuel technology also makes it harder to detect and intercept because it can be launched quickly with minimal warning. This enhances North Korea’s deterrence capability against its regional adversaries.

Concerns for Global Security

The testing of missiles equipped with cluster munitions raises serious concerns for international peace and humanitarian law. Many countries and international organizations oppose the use of cluster bombs because of their devastating impact on civilians.

The development and repeated testing of advanced missile systems by North Korea continue to increase tensions in East Asia, especially involving countries such as South Korea, Japan, and the United States.

 

 

Recently, the Karnataka High Court strongly objected to the Karnataka government allegedly violating judicial orders that prohibited construction activities near the Shree Chamundeshwari Temple in Mysuru.

About Shree Chamundeshwari Temple

The Shree Chamundeshwari Temple is a famous Hindu temple situated atop the Chamundi Hills, around 13 kilometres from the city of Mysuru in Karnataka.

The temple is dedicated to Goddess Chamundeshwari, who is regarded as a powerful form or avatar of Goddess Durga. According to Hindu mythology, Goddess Chamundeshwari defeated the demon Mahishasura, symbolising the victory of good over evil.

The city of Mysuru itself derives its name from Mahishasura, linking the temple deeply with the cultural and mythological identity of the region.

Historical Background

Construction and Patronage

The original shrine of the temple is believed to have been constructed by the Hoysala Empire during the 12th century.

Later, the temple received further development and expansion under the Vijayanagara Empire during the 17th century.

An important historical contribution was made by Maharaja Dodda Devaraja Wodeyar of Mysuru, who built the famous stone stairway leading to the temple during the mid-17th century.

The stairway consists of nearly 1,000 stone steps, which continue to be used by pilgrims and devotees climbing the Chamundi Hills.

Religious Significance

One of the Maha Shakti Peethas

The temple is considered a sacred Shakti Peetha, which refers to important pilgrimage centres associated with the worship of the Divine Feminine or Shakti.

It is recognised as one among the 18 Maha Shakti Peethas, making it an important centre of Hindu devotion and spiritual significance.

Thousands of devotees visit the temple every year, especially during festivals such as:

• Navaratri

• Ashada Fridays

• Dasara celebrations of Mysuru

The temple plays a central role in the cultural and religious life of Karnataka.

Architecture of Shree Chamundeshwari Temple

The temple is built in the traditional Dravidian style of architecture, which is known for its towering gateways, intricate carvings, and grand temple complexes.

The structure of the temple is quadrangular in design and consists of several important sections, including:

• Main doorway

• Entrance hall

• Navaranga Hall

• Antharala Mantapa

• Sanctum Sanctorum

• Prakara (outer enclosure)

These components reflect the classical features of South Indian temple architecture.

Magnificent Gopuram

One of the most striking features of the temple is its impressive seven-tiered Gopuram or pyramidal entrance tower.

The Gopuram is richly decorated with colourful sculptures of:

• Gods and goddesses

• Mythological figures

• Divine symbols

At the entrance, the tower also contains a small image of Lord Ganesha, considered the remover of obstacles in Hindu tradition.

Sanctum and Interior Features

Above the Sanctum Sanctorum is a smaller tower known as the Vimana, which is another characteristic feature of Dravidian temple architecture.

The doorway of the temple is beautifully silver-plated and decorated with images of the Goddess in her different divine forms.

Cultural Importance

The Shree Chamundeshwari Temple is not only a religious centre but also an important symbol of the cultural identity of Karnataka.

It is closely associated with the famous Mysuru Dasara Festival, during which the Goddess Chamundeshwari is worshipped with great devotion and grandeur.

Conclusion

The Shree Chamundeshwari Temple stands as a remarkable blend of religious devotion, historical legacy, and architectural excellence. Its association with Goddess Chamundeshwari, its status as a Maha Shakti Peetha, and its magnificent Dravidian architecture make it one of the most important temples in southern India.

 

Inland waterways are increasingly emerging as a cost-effective, eco-friendly, and resilient mode of transport in India. Recently, the Chief Economic Advisor (CEA) highlighted the importance of strengthening inland water transport systems to improve India’s logistics efficiency and supply chain resilience.

The importance of inland waterways has become even more significant in the backdrop of disruptions in global shipping routes caused by the West Asian conflict of 2026. Such geopolitical uncertainties have exposed the vulnerability of international trade routes and emphasized the need for strong domestic transport networks that can ensure economic stability and uninterrupted movement of goods within the country.

About Inland Waterways

Inland Water Transport (IWT) refers to the movement of goods and passengers through inland water bodies such as rivers, canals, backwaters, and creeks.

It is regarded as one of the most energy-efficient, economical, and environmentally sustainable modes of transportation, especially for carrying bulk cargo over long distances.

Unlike road and rail transport, inland waterways require comparatively lower fuel consumption and involve lower operational costs, making them highly suitable for large-scale freight movement.

Criteria for National Waterways

The National Transport Policy Committee (1980) recommended that a waterway may be declared a national waterway if it fulfills certain conditions, including:

• A minimum channel width of 45 metres

• A depth of at least 1.5 metres

• A continuous navigable stretch of 50 kilometres

However, exceptions can be made in urban regions and port areas where strategic importance outweighs these requirements.

A waterway is considered commercially navigable when it can support vessels carrying at least 50 tonnes of cargo under normal conditions.

Classification of Inland Waterways

Open River Waterways

These are natural rivers that flow freely with minimal human intervention. Such waterways are largely dependent on natural river conditions and seasonal water flow.

Canalised Waterways

These waterways are modified using engineering structures such as dams, barrages, and locks. Such modifications create calmer and more reliable navigation channels suitable for transport throughout the year.

Canals

Canals are fully man-made waterways designed to connect different rivers or bypass natural obstacles. They play an important role in improving regional connectivity and transport efficiency.

Broader Utility of Inland Waterways

According to the World Bank, inland waterways provide benefits beyond transportation.

They contribute to:

• Tourism development

• Flood control

• Irrigation management

• Protection of ecosystems

• Regional economic development

Thus, inland waterways support both economic growth and environmental sustainability.

Inland Waterways in India

India possesses more than 14,500 kilometres of navigable waterways, making it one of the countries with significant inland water transport potential.Under the National Waterways Act, 2016, the government declared 111 National Waterways across the country.

One of the most important initiatives is the Jal Marg Vikas Project, which focuses on the development of National Waterway-1 (NW-1) along the Ganga-Bhagirathi-Hooghly river system.This project has received support from the World Bank and aims to improve navigation infrastructure, cargo movement, and river transport efficiency.The growth of inland waterways in India has been remarkable. Cargo movement through waterways increased from nearly 18 million tonnes in 2013–14 to approximately 146 million tonnes, registering a compound annual growth rate (CAGR) of nearly 21%.

Importance of Inland Waterways in India’s Supply Chains

Cost-Effective Transportation

One of the greatest advantages of inland waterways is their low transportation cost.

Transporting goods through waterways costs around ₹0.25–₹0.30 per tonne-kilometre, which is significantly lower compared to:

• Rail transport — nearly ₹1 per tonne-km

• Road transport — around ₹1.5 per tonne-km

This substantial reduction in logistics costs improves the competitiveness of Indian industries and supports economic growth.

Massive Bulk Carrying Capacity

Inland waterways are highly suitable for transporting heavy and bulk commodities.

A single 2,000-tonne inland vessel can carry cargo equivalent to nearly 125 trucks.

This makes waterways ideal for transporting:

• Coal

• Cement

• Fertilisers

• Food grains

• Construction materials

Large-scale cargo movement through waterways reduces pressure on roads and railways while improving efficiency.

Reducing Pressure on Roads and Railways

India’s road and railway systems are already heavily burdened due to increasing freight traffic.

Overdependence on road transport leads to:

• Traffic congestion

• Higher fuel consumption

• Increased maintenance costs

• Delays in cargo delivery

By shifting a large share of bulk freight to waterways, inland water transport helps decongest highways and freight corridors.

This reduces wear and tear on physical infrastructure and improves the overall efficiency of the transport network.

Protection Against Global Disruptions

Recent geopolitical crises, including the West Asian conflict, have demonstrated how vulnerable global shipping routes can become during conflicts and instability.

Disruptions in international sea routes often lead to:

• Increased shipping costs

• Higher insurance premiums

• Supply chain delays

• Energy insecurity

Inland waterways provide a secure domestic transport channel that remains insulated from many international disruptions.

This enhances India’s economic resilience and ensures uninterrupted internal trade even during global crises.

Environmental Sustainability

Inland waterways are considered one of the most environmentally friendly modes of transport.

Compared to road transport, inland vessels consume nearly 3–6 times less energy and generate significantly lower greenhouse gas emissions. The promotion of inland water transport supports India’s Panchamrit climate commitments and broader sustainability goals.

Integration of Hinterland Regions

Inland waterways play a major role in connecting landlocked and underdeveloped regions with national and international markets.

States such as:

• Bihar

• Jharkhand

• Northeastern states

can benefit significantly from river-based connectivity.

Waterways such as the Ganga (National Waterway-1) and the Brahmaputra (National Waterway-2) help integrate hinterland economies with major seaports and industrial centres.

This creates new opportunities for:

• Farmers

• MSMEs

• Local industries

• Regional trade

Reliability and Expansion Potential

Unlike roads, waterways are generally free from traffic bottlenecks and offer predictable transit times.

India also possesses enormous untapped potential in inland navigation because a large part of its navigable waterways remains underutilised.

An important advantage is that the development of waterways requires comparatively minimal land acquisition, making expansion easier and less socially disruptive than road or railway expansion projects.

Current Status of Inland Waterways in India

National Waterways Act, 2016

Under the National Waterways Act, 2016, the Government of India declared 111 waterways as National Waterways across 23 States and 4 Union Territories.

Together, these waterways cover nearly 20,187 kilometres of navigable routes.

As of 2026, around 32 waterways, covering nearly 5,155 kilometres, have become operational, while plans are underway to expand operations to nearly 52 waterways.

Operational waterways are equipped with:

• Navigational fairways

• Terminals

• Navigational aids

• Vessel movement systems

These facilities support safe cargo and passenger transport while encouraging private investment in inland navigation.

Rapid Growth in Cargo and Passenger Movement

Expansion of Cargo Transportation

India’s inland cargo movement has witnessed remarkable growth, particularly along important corridors such as:

• National Waterway-1 (Ganga-Bhagirathi-Hooghly system)

• National Waterway-2 (Brahmaputra River)

Cargo movement through inland waterways reached nearly 145.84 million metric tonnes (MMT) in 2024–25 and further increased to around 198 MMT in 2025–26.

This growth reflects the increasing role of waterways in India’s freight transportation network.

Improved Efficiency

The efficiency of inland transport systems has also improved considerably.

The average turnaround time for cargo vessels declined from nearly 41.76 hours in 2013–14 to around 28.5 hours in 2024–25.

This reduction demonstrates improvements in:

• Navigation systems

• Port handling

• Cargo management

• Waterway infrastructure

Faster turnaround times improve logistics efficiency and reduce transportation costs.

Growth in Passenger Traffic

Passenger movement through inland waterways has also increased significantly.

Passenger traffic rose sharply from approximately 1.61 crore passengers in 2023–24 to nearly 7.6 crore passengers in 2024–25.

This reflects the growing importance of waterways not only for freight movement but also for tourism and public transportation.

Modal Share of Inland Waterways

Despite recent growth, inland waterways still account for less than 2% of India’s domestic freight modal share.

In comparison:

• Road transport carries nearly 65%

• Railways carry around 27%

This indicates that inland waterways remain significantly underutilised.

To address this imbalance, India aims to increase the modal share of inland waterways to 5% by 2030.

The government has also set ambitious cargo movement targets of:

• 200 MMT by 2030

• 500 MMT by 2047

Challenges Facing Inland Waterways in India

Inadequate Navigational Depth

One of the biggest challenges for inland waterways in India is the lack of consistent navigational depth or draft.Indian rivers are highly seasonal and heavily dependent on monsoon rainfall. During summer months, water levels decline significantly, making navigation difficult for large cargo vessels.Heavy siltation in rivers further reduces navigable depth and requires continuous and expensive dredging operations.

Infrastructure Deficiencies

India’s inland waterway sector still suffers from major infrastructure gaps.

There is an inadequate availability of:

• Modern terminals

• Roll-on/Roll-off (Ro-Ro) facilities

• Mechanised cargo handling systems

• Warehousing infrastructure

• Last-mile connectivity with highways and railways

Weak multimodal integration limits the efficiency and attractiveness of inland transport.

Low Vertical Clearances

Several rivers and canals in India have low-lying bridges that obstruct the movement of large inland vessels with higher air drafts.

This restricts the use of bigger and more efficient cargo vessels, thereby reducing transport capacity and operational efficiency.

Competing Water Usage

Indian rivers serve multiple purposes, including:

• Drinking water supply

• Agricultural irrigation

• Hydropower generation

• Ecological conservation

In many cases, navigation requirements conflict with irrigation and drinking water priorities.

This creates coordination challenges between the Centre and states regarding river management and water allocation.

Regulatory and Procedural Bottlenecks

Although the Inland Vessels Act, 2021 introduced uniform safety and operational standards, several regulatory challenges continue to affect the sector.

Complex compliance requirements, taxation issues, insurance barriers, and procedural delays discourage private investment and Public-Private Partnerships (PPP) in inland navigation.

India’s Major Initiatives for Inland Waterways

Inland Waterways Authority of India (IWAI)

The Inland Waterways Authority of India Act, 1985 established the Inland Waterways Authority of India (IWAI) as the nodal agency responsible for:

• Development of waterways

• Maintenance of navigational channels

• Construction of terminals

• Regulation of inland water transport

IWAI plays a central role in expanding India’s inland navigation infrastructure.

Jalvahak Cargo Promotion Scheme

The Jalvahak Cargo Promotion Scheme (2024) was launched to encourage industries to shift cargo transportation from roads and railways to waterways.

The scheme provides financial incentives of up to 35% cost reimbursement, thereby improving logistics efficiency and reducing transport costs.

Inland Vessels Act, 2021

The Inland Vessels Act, 2021 introduced uniform national standards for:

• Vessel safety

• Registration

• Pollution control

• Operational procedures

This law improves safety, transparency, and efficiency in inland navigation.

Coastal Shipping Act, 2025

The Coastal Shipping Act, 2025 aims to integrate inland waterways with coastal shipping systems.

This integration strengthens multimodal connectivity and improves freight movement across ports, rivers, highways, and railways.

Harit Nauka Guidelines

The Harit Nauka Guidelines (2024) promote the adoption of environmentally sustainable inland vessels.

The initiative focuses on reducing carbon emissions by encouraging the use of:

• Hybrid vessels

• Electric vessels

• Alternative fuels such as hydrogen and methanol

This supports India’s green transport transition.

Jal Marg Vikas Project (JMVP)

The Jal Marg Vikas Project and its extended initiative Arth Ganga focus on improving navigability along National Waterway-1 on the Ganga River.

These projects aim to:

• Improve cargo movement

• Strengthen river infrastructure

• Promote economic development along riverbanks

• Support local communities

River Cruise Tourism Roadmap 2047

The River Cruise Tourism Roadmap 2047 seeks to promote river-based tourism as a source of:

• Employment generation

• Regional development

• Cultural connectivity

• Sustainable tourism

This initiative highlights the multidimensional benefits of inland waterways.

Digital Initiatives in Inland Waterways

CAR-D Portal

The CAR-D (Cargo Data) Portal developed by IWAI provides real-time data related to cargo and cruise movement across National Waterways.

This improves transparency, planning, and logistics management.

LADIS

The Least Available Depth Information System (LADIS) provides real-time information regarding water depth, ensuring safe navigation for vessels.

River Information Services (RIS)

River Information Services (RIS) use advanced digital systems for:

• Real-time vessel tracking

• Traffic management

• Weather monitoring

• Navigation support

These technologies improve operational efficiency and safety.

Jal Samriddhi Portal

The Jal Samriddhi Portal enables online approvals for jetties and terminals, improving ease of doing business and transparency.

Strengthening Inland Waterways for Better Supply Chains

Continuous Dredging

Scientific and continuous dredging is necessary to maintain sufficient navigational depth throughout the year.

Reliable depth ensures uninterrupted movement of large cargo vessels even during dry seasons.

Integration with PM Gati Shakti

The integration of waterways with the PM Gati Shakti initiative can strengthen multimodal connectivity by linking waterways with:

• Dedicated Freight Corridors (DFCs)

• National highways

• Rail networks

• Coastal shipping systems

This integrated logistics ecosystem will improve supply chain efficiency.

Promoting Green Transport

India should encourage the use of eco-friendly vessels under green maritime initiatives.

The adoption of electric, hybrid, hydrogen-based, and methanol-powered vessels can significantly reduce carbon emissions from the logistics sector.

Encouraging Public-Private Partnerships

The government must provide attractive viability gap funding (VGF) and policy incentives to encourage private investment in:

• Terminals

• Warehouses

• Cargo vessels

• Logistics infrastructure

Private sector participation is essential for rapid infrastructure development.

Boosting Domestic Shipbuilding

Under the Make in India initiative, India should promote the domestic manufacturing of:

• Shallow-draft barges

• Cargo vessels

• Green inland ships

Tax incentives and subsidies can strengthen indigenous shipbuilding capacity.

Conclusion

The development of inland waterways is a strategic necessity for India as it seeks to reduce logistics costs, improve supply chain resilience, and promote sustainable transportation.

Although significant progress has been made in recent years, major challenges such as inadequate depth, infrastructure gaps, regulatory bottlenecks, and weak multimodal integration still need to be addressed.

 

India is an agrarian country where agriculture remains the backbone of the economy and a major source of livelihood for millions of people. However, Indian agriculture is increasingly facing serious challenges such as climate variability, declining natural resources, fragmented landholdings, labour shortages, and rising cultivation costs. In such a situation, agricultural engineering has emerged as an essential tool for improving productivity, ensuring sustainability, and strengthening the resilience of the agricultural sector.

What is Agricultural Engineering?

Agricultural engineering refers to the application of engineering principles, scientific knowledge, and technological innovations to agriculture and allied sectors. Its primary objective is to improve agricultural productivity, resource efficiency, and sustainability.

Unlike agronomy, which mainly deals with crop science and plant management, agricultural engineering focuses on the systems, machinery, infrastructure, and technologies that support farming activities. It helps develop modern tools and techniques that make agriculture more scientific and efficient.

Agricultural engineering broadly covers areas such as farm mechanisation, soil and water conservation, post-harvest management, and precision or digital agriculture.

Role of Agricultural Engineering in Modernising Indian Agriculture

Enhancing Farm Productivity

One of the most important contributions of agricultural engineering is the promotion of farm mechanisation. The use of tractors, seed drills, planters, combine harvesters, and laser land levellers has transformed traditional farming practices into more efficient and productive systems.

Mechanisation reduces the dependence on manual labour and enables farmers to complete agricultural operations quickly and accurately. According to NITI Aayog, farm mechanisation can increase agricultural productivity by nearly 12–15%, reduce cultivation costs by around 20%, and lower labour requirements for sowing by 60–70%.

Efficient Water Resource Management

Water scarcity has become a major challenge for Indian agriculture, particularly in drought-prone regions. Agricultural engineering provides advanced irrigation technologies that ensure efficient utilisation of water resources.

Techniques such as drip irrigation, sprinkler irrigation, and fertigation systems supply water directly to plant roots in a controlled manner, reducing wastage and improving crop health.

The use of moisture sensors and automated irrigation systems further helps farmers monitor soil moisture and avoid excessive water use. These technologies increase water-use efficiency while improving crop productivity.

Strengthening Soil Conservation

Agricultural engineering also plays an important role in soil management and conservation. Engineering measures such as bunding, terracing, drainage systems, and erosion-control structures help protect soil from degradation and maintain its fertility.

These techniques reduce soil erosion, prevent waterlogging, and improve moisture retention. Healthy soil is essential for maintaining long-term agricultural productivity and ensuring food security.

Reducing Post-Harvest Losses

India loses agricultural produce worth more than ₹1.5 lakh crore every year because of poor storage, transportation, and supply chain infrastructure. Post-harvest losses reduce farmers’ incomes and create inefficiencies in the food system.

Agricultural engineering addresses this issue through modern storage and processing technologies such as cold chains, scientific warehouses, food processing units, and refrigerated transportation systems.

Efficient cold chain infrastructure can reduce post-harvest wastage by nearly 75%, helping preserve the quality of fruits, vegetables, dairy products, and other perishable commodities.

Promoting Precision and Smart Agriculture

Modern agricultural engineering increasingly relies on precision agriculture and smart farming technologies.

Technologies such as:

• Drones

• Sensors

• GPS-based machinery

• Satellite imagery

• Artificial intelligence systems

enable farmers to monitor crops in real time and apply inputs like fertilisers, pesticides, and water with greater accuracy.

According to the Indian Council of Agricultural Research (ICAR) and the Economic Survey 2024–25, precision farming technologies can improve fertiliser efficiency by 12–15% and reduce pesticide use by nearly 20%.

Building Climate-Resilient Agriculture

Climate change has increased the frequency of droughts, floods, heatwaves, and erratic rainfall patterns in India. Agricultural engineering helps farmers adapt to these challenges through advanced technologies and climate-smart practices.

Precision irrigation systems, weather-based sensors, and drone-based crop monitoring help farmers make informed decisions about irrigation, fertiliser application, and crop management.

Engineering innovations also support the development of climate-resilient agricultural systems that can withstand environmental stress and improve long-term sustainability.

Conservation Agriculture and Environmental Sustainability

Agricultural engineering promotes conservation agriculture through technologies such as zero-till drills and Happy Seeders.

These machines help reduce soil disturbance, conserve soil moisture, improve soil fertility, and minimise fuel consumption.

Importantly, they also help prevent stubble burning, which is a major cause of air pollution in northern India. Thus, conservation technologies provide a triple benefit by improving agricultural productivity, protecting the environment, and reducing pollution.

Integration with Biotechnology

Agricultural engineering increasingly works together with advances in biotechnology to improve agricultural performance.

Technologies such as:

• Climate-resilient crop varieties

• Genome editing

• Biological pest-control methods

complement precision agriculture and improve sustainability.

The integration of engineering and biotechnology can help increase food production while reducing environmental stress and dependence on chemical inputs.

Challenges in the Adoption of Agricultural Engineering in India

High Capital Costs and Financial Constraints

One of the biggest challenges in adopting agricultural engineering is the high initial cost of modern machinery and smart technologies.Limited access to institutional credit, high borrowing costs, and inadequate subsidy coverage further restrict farmers from purchasing modern equipment.As a result, a large number of farmers continue to rely on traditional farming methods despite the availability of more efficient technologies.

Low Level of Farm Mechanisation

The level of farm mechanisation in India remains relatively low compared to major agricultural economies.

India’s farm mechanisation level is estimated at around 40–47%, which is significantly lower than:

• United States — nearly 95%

• Brazil — around 75%

• China — nearly 57%

As of 2024, the highest level of mechanisation in India has been achieved in seed-bed preparation, where mechanisation has reached nearly 70%. However, operations such as harvesting and threshing still remain mechanised at only around 34%.

This uneven mechanisation reduces overall agricultural efficiency and productivity.

Regional Imbalances in Mechanisation

Mechanisation in India is highly concentrated in states such as Punjab and Haryana, which benefited from the Green Revolution.

In contrast, many eastern, central, and northeastern states continue to have low levels of mechanisation because of poor infrastructure, lower incomes, and fragmented landholdings.

This regional imbalance creates unequal agricultural development across the country.

Low Technical Awareness Among Farmers

Many farmers lack the technical knowledge required to operate, repair, and maintain modern agricultural machinery and digital technologies.

Advanced systems such as drones, GPS-based equipment, precision farming tools, and automated irrigation systems require specialised understanding and training.

However, India’s agricultural extension services remain weak and often fail to effectively transfer modern technologies and best practices to farmers at the grassroots level.

Fragmented Landholdings

A major structural challenge in Indian agriculture is the prevalence of small and fragmented landholdings.

Nearly 84% of agricultural holdings in India are below 1 hectare in size. Such small landholdings make the ownership of large agricultural machinery economically unviable for individual farmers.

Modern high-capacity machinery and precision agriculture technologies work more efficiently on larger and consolidated farms. Fragmented landholdings reduce operational efficiency and increase costs.

As a result, for most farmers, Custom Hiring Centres (CHCs) and rental-based mechanisation models become the only practical solution.

Infrastructural and Institutional Gaps

The benefits of agricultural engineering are often limited by inadequate rural infrastructure.

Many rural areas still suffer from:

• Poor storage facilities

• Inadequate cold chain infrastructure

• Weak rural road connectivity

• Unreliable electricity supply

• Limited internet connectivity

Without proper infrastructure, even advanced agricultural technologies cannot deliver their full benefits.

Weak Market Linkages

Agricultural engineering improves productivity, but farmers often fail to realise higher incomes because of weak market access and inefficient supply chains. Poor integration between farmers, markets, processing industries, and logistics systems limits the economic gains from increased production.

Government Policies and Schemes Promoting Agricultural Engineering

Pradhan Mantri Krishi Sinchayee Yojana (PMKSY)

The Pradhan Mantri Krishi Sinchayee Yojana promotes the concept of “More Crop Per Drop.”

The scheme encourages the adoption of:

• Drip irrigation

• Sprinkler systems

• Micro-irrigation technologies

to improve water-use efficiency and strengthen sustainable agriculture.

Namo Drone Didi Scheme

The Namo Drone Didi initiative aims to deploy nearly 14,500 drones to women Self-Help Groups (SHGs) by 2025–26.

These drones are mainly used for:

• Pesticide spraying

• Fertiliser application

• Crop monitoring

The government provides subsidies of up to ₹8 lakh or 80% of the drone cost, whichever is lower.

This initiative promotes both agricultural modernisation and women’s participation in agri-technology.

PM Dhan-Dhaanya Krishi Yojana

The PM Dhan-Dhaanya Krishi Yojana announced in the Budget 2025–26 focuses on improving mechanisation, irrigation, and post-harvest infrastructure in nearly 100 low-productivity districts.

The scheme aims to improve agricultural efficiency and reduce regional disparities in agricultural development.

FARMS Mobile Application

The government has launched the FARMS (Farm Machinery Solutions) App, which digitises the booking process for Custom Hiring Centres.

The application connects farmers with more than 26,000 service providers, reducing machinery search costs and idle time.

Digital platforms like FARMS improve accessibility to mechanisation services, especially for small farmers who cannot afford machinery ownership.

Agricultural Engineering Directorates

A Parliamentary Committee has recommended the establishment of Directorates of Agricultural Engineering in every state to strengthen mechanisation policies and implementation.

Currently, such specialised directorates exist mainly in Madhya Pradesh and Tamil Nadu.

Dedicated institutional structures can improve planning, coordination, and implementation of agricultural engineering initiatives across the country.

Way Forward

India must expand Custom Hiring Centres (CHCs) and rental-based equipment systems to make mechanisation affordable for small and marginal farmers.Farmer Producer Organisations (FPOs) should also be encouraged to collectively purchase and manage agricultural machinery.This cooperative approach can reduce costs and improve access to modern technologies.

 

The recent changes seen on airport departure boards — from “On Time” to “Delayed” and eventually “Rescheduled” — reflect much more than ordinary operational inconvenience. The ongoing geopolitical tensions and conflict in West Asia, especially linked to the Iran war, are deeply affecting the global aviation industry.

Airspace restrictions and security concerns over the region are gradually transforming the economics and operational structure of international aviation. What initially appeared to be temporary disruptions are now evolving into signs of a larger structural crisis in global air travel.

Immediate Disruptions and Rising Operational Costs

One of the most immediate consequences of the conflict has been the closure or restriction of important airspaces in West Asia. Airlines are now forced to take longer alternative routes, increasing flight durations and fuel consumption.

This has significantly raised operational costs because aviation fuel already accounts for nearly 25%–40% of airline operating expenses. With crude oil prices approaching extremely high levels, airlines are facing severe financial pressure.

Since the aviation industry generally operates on narrow profit margins, airlines have responded by increasing ticket prices, imposing fuel surcharges, and cancelling several routes, especially between Europe and Asia. As a result, passengers are facing higher travel costs and reduced connectivity.

The Emergence of a “New Normal”

If geopolitical tensions continue for a prolonged period, these temporary disruptions may become a permanent feature of global aviation. Airlines may be forced to institutionalise rerouted flight paths as part of their regular operations.

This would create long-term inefficiencies such as increased crew expenses, reduced aircraft utilisation, and longer turnaround times at airports. Airlines may also cut down less profitable long-haul routes, particularly those connecting smaller cities.

Over time, this could reshape the global aviation map itself. Traditional transit hubs may lose importance, while new aviation hubs could emerge in safer and strategically advantageous regions.

India’s Unique Vulnerability

India’s aviation sector is particularly vulnerable because Indian airlines rely heavily on West Asian air corridors for flights to Europe and North America. Any disruption in this region directly affects India’s international connectivity.

At the same time, Indian airlines operate in a highly price-sensitive market, where significant fare hikes are difficult. This creates a major challenge because operational costs are rising rapidly while revenue growth remains limited.

Another structural problem is the high taxation on Aviation Turbine Fuel (ATF) in India. This further increases the financial burden on airlines and weakens their ability to absorb external shocks.

Possibility of a Larger Systemic Crisis

If the geopolitical conflict escalates further, the aviation industry could face a much deeper crisis. Wider airspace closures and volatile fuel prices may push airlines into severe financial distress.

Unlike the COVID-19 pandemic, where aviation suffered mainly because of reduced demand, the present crisis represents a cost-driven disruption. Airlines may continue flying, but under enormous financial strain due to rising expenses.

This could lead to shrinking flight networks, declining international connectivity, and reduced high-density intercontinental travel. Such a situation would affect tourism, trade, investment, and global economic integration.

Strategic Adaptation and Emerging Opportunities

Despite these challenges, the crisis also presents opportunities for strategic adaptation. Airlines may begin diversifying their routes to reduce dependence on conflict-prone regions.

Investment in ultra-long-haul aircraft could help airlines bypass traditional transit hubs altogether. New aviation centres and transit hubs may emerge, redistributing global traffic flows.

For India, policy reforms can play an important role. Measures such as reducing taxes on aviation fuel, improving airport infrastructure, and revising bilateral aviation agreements can strengthen the competitiveness of Indian carriers.

If managed carefully, the present crisis could become an opportunity for India to improve its position in the global aviation network.

Geopolitics as a Central Factor in Aviation

The current situation demonstrates that geopolitics is no longer an external or temporary factor affecting aviation. Instead, it has become a central variable shaping airline operations and global connectivity.

The earlier assumption that international airspace would remain predictable and stable is weakening. Airlines are now required to integrate risk assessment, uncertainty management, scenario planning, and dynamic pricing into their long-term strategies.

Operational flexibility and resilience have become essential for survival in this evolving global environment.

Conclusion

Global aviation is entering a new phase where geopolitical uncertainty, rather than pure operational efficiency, will increasingly shape the industry. Persistent disruptions require airlines and governments to focus on resilience, innovation, and strategic planning.