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India has achieved a historic milestone in railway transportation by launching its first indigenous hydrogen-powered passenger train on 17 July 2026. Flagged off by Prime Minister Narendra Modi from Jind Junction, Haryana, this landmark project marks India's entry into the exclusive group of countries operating hydrogen-powered passenger trains.The train will operate on the 89-kilometre Jind–Sonipat route under Northern Railway and represents a major step towards clean, sustainable, and zero-emission transportation. Developed under the Make in India initiative, the project also supports the National Green Hydrogen Mission and India's vision of achieving Net Zero Carbon Emissions by 2070.What makes this achievement even more remarkable is that India's hydrogen train is among the largest-capacity hydrogen-powered passenger trains in the world, featuring 10 coaches and accommodating approximately 2,600 passengers.In this comprehensive guide, we will explore everything you need to know about India's first hydrogen train, including its features, working principle, route, benefits, comparison with global hydrogen trains, challenges, and future prospects.
Table of Contents
Key Highlights
India's first hydrogen train is not merely another passenger train—it is a symbol of technological advancement and environmental responsibility.
Some of its unique features include:
What is a Hydrogen Train?
A hydrogen train is a train powered by hydrogen fuel cells instead of diesel engines.Rather than burning diesel fuel, hydrogen stored in high-pressure tanks reacts with oxygen inside a fuel cell to produce electricity. The electricity powers electric motors that drive the train.The only by-products are:
This makes hydrogen trains one of the cleanest railway technologies available today.
How Does a Hydrogen Train Work?
The working process is simple yet highly efficient.
Step 1
Hydrogen is stored in specially designed high-pressure cylinders.
Step 2
Oxygen enters the fuel cell from the atmosphere.
Step 3
Inside the fuel cell, Hydrogen + Oxygen → Electricity + Water + Heat
Step 4
The electricity powers the train's traction motors.
Step 5
Excess electricity is stored in lithium-ion batteries.
Step 6
During braking, regenerative braking charges the batteries again.
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