Q. Discuss the potential of hydrogen-powered transportation systems in helping India achieve its climate commitments and energy security...
Question
Q. Discuss the potential of hydrogen-powered transportation systems in helping India achieve its climate commitments and energy security objectives. What are the major challenges in their large-scale adoption? (15 marks 250 Words)
Model Answer
Discuss the potential of hydrogen-powered transportation systems in helping India achieve its climate commitments and energy security objectives. What are the major challenges in their large-scale adoption? (15 marks 250 Words)
Paper
GS III
Subject
Economic Development
Syllabus as Per Notification
Infrastructure: Energy, Ports, Roads, Airports, Railways etc.
Topic
Green Hydrogen
Approach:
Introduction
Introduce by briefly mentioning how first indigenous hydrogen-powered train is an important milestone in developing a hydrogen mobility ecosystem.
Body
Discuss the potential of Hydrogen Transportation Systems to India's Climate Commitments
Decarbonisation of Hard-to-Abate Transport Sectors, Near-Zero Tailpipe Emissions and Supports National Green Hydrogen Mission (NGHM) Targets
Potential of Hydrogen Transportation Systems in enhancing Energy Security
Reducing Dependence on Imported Fossil Fuels, Utilisation of India's Renewable Energy Potential and Energy Diversification and Strategic Autonomy
Major Challenges in Large-Scale Adoption
High Production Cost of Green Hydrogen, Infrastructure Deficit, Storage, Safety and Regulatory Challenges, Technology Dependence and Supply Chain Risks and Competition from Battery Electric Vehicles
Way Forward
Accelerating Mission-Mode Implementation of NGHM, Providing Viability Gap Funding and Fiscal Incentives, Developing Hydrogen Mobility Corridors and Promoting Indigenous Manufacturing and Innovation
Conclusion
Conclude by emphasising hydrogen mobility can be a crucial pillar in achieving vision of Net Zero by 2070.
Context
Prime Minister launched India’s first indigenous hydrogen-powered train between Jind-Sonipat (Haryana)
Introduction
Hydrogen-powered transportation refers to the use of hydrogen, primarily through fuel cells or hydrogen internal combustion engines (H₂-ICE), to power vehicles such as buses, trucks, trains and ships. Green hydrogen produced from renewable energy is viewed as a critical pillar of clean energy transition under National Green Hydrogen Mission (NGHM). Recent launch of first indigenous hydrogen-powered train between Jind-Sonipat (Haryana) marks important milestone in developing a hydrogen mobility ecosystem.
Body
Potential of Hydrogen Transportation Systems to India's Climate Commitments
Hydrogen mobility can significantly support India's Panchamrit goals and the Net Zero by 2070 target.
Decarbonisation of Hard-to-Abate Transport Sectors
While battery electric vehicles (BEVs) suit short-distance mobility, hydrogen is particularly suitable for long-haul, heavy-duty and difficult-to-electrify transport segments such as heavy commercial vehicles, freight corridors, shipping and non-electrified railway routes.
Decarbonisation of these sectors is essential for reducing economy-wide emissions intensity and placing the transport sector on a long-term Net Zero pathway.
Near-Zero Tailpipe Emissions
Hydrogen fuel cells produce only water vapour and heat as by-products, thereby reducing GHG emissions, particulate matter and improving urban air quality.
Replacing diesel-based freight and public transport with hydrogen mobility can significantly contribute to India's target of reducing the emissions intensity of GDP by 45% by 2030.
Example: India's first hydrogen train uses a 1,200 kW Proton Exchange Membrane Fuel Cell (PEMFC) system with zero direct emissions.
Supports National Green Hydrogen Mission (NGHM) Targets
Expansion of Hydrogen Transportation systems can create large-scale domestic demand for green hydrogen, there by supporting NGHM targets such asproducing 5 MMT of green hydrogen annually by 2030 and adding 125 GW of renewable energy capacity.
Potential of Hydrogen Transportation Systems in enhancing Energy Security
Reducing dependence on imported fossil fuels
Hydrogen mobility can reduce India's dependence on imported crude oil, thereby insulating the economy from geopolitical disruptions and global price volatility.
Example: India imports nearly 85% of its crude oil requirements. Converting even 20,000 heavy-duty trucks to hydrogen FCEVs could potentially save nearly USD 1 billion in diesel import costs.
Utilisation of domestic Renewable energy potential
Green hydrogen enables the conversion of domestically generated solar and wind energy into a storable transport fuel, thereby enhancing energy resilience.
Example: India has already surpassed 50% non-fossil installed electricity capacity ahead of 2030 INDCs timeline and hydrogen can help utilise this growing renewable base more effectively.
Promoting energy diversification and strategic autonomy
Development of indigenous capabilities in fuel cells, hydrogen storage and related technologies can diversify India's transport fuel mix and strengthen strategic and technological self-reliance.
Example: Indigenous hydrogen train project approved by the Research Designs and Standards Organisation (RDSO) signifies progress towards Atmanirbhar Bharat in clean mobility technologies.
Major Challenges in Large-Scale Adoption
High Production Cost of Green Hydrogen
Green hydrogen remains considerably more expensive than fossil fuels. Current production costs in India range from $3.7-6/kg, compared to $1.8-2.6/kg for grey hydrogen.
Infrastructure Deficit
India currently lacks fully developed hydrogen transport, storage, or refuelling infrastructure at commercial scale.
While the Jind (Haryana) facility stores nearly 3,000 kg of hydrogen, scaling to national level requires enormous investment.
Storage, Safety and Regulatory Challenges
Hydrogen's low energy density and high flammability increase storage and transportation costs, while the absence of safety standards and regulatory frameworks poses challenges for large-scale deployment.
Technology Dependence and Supply Chain Risks
India remains dependent on imports for critical minerals and advanced technologies such as fuel-cell components, electrolysers, membranes, platinum and iridium, such dependence could create new strategic vulnerabilities.
Competition from Battery Electric Vehicles
Battery electric transport is three to eight times more energy-efficient than hydrogen in several transport applications, particularly passenger mobility.
With over 95% of broad-gauge railway network already electrified, hydrogen transportation is likely to remain limited to niche sectors such as heavy freight, shipping and select rail routes.
Way Forward
Accelerating Mission-Mode Implementation of NGHM: Following Japan'sBasic Hydrogen Strategy, India should adopt a whole-of-government approach by integrating policies across Railways, Road Transport, Shipping, Petroleum and Steel ministries.
Providing Viability Gap Funding and Fiscal Incentives: Adoption of FAME-type incentives for hydrogen vehicles and concessional financing through Indian Renewable Energy Development Agency (IREDA) can improve commercial viability during initial scale-up phase.
Developing Hydrogen Mobility Corridors: Establishing dedicated hydrogen corridors along major industrial and logistics routes such as Visakhapatnam–Chennai Industrial Corridor (VCIC) and Western Dedicated Freight Corridor (WDFC), inspired by European Union’s Hydrogen Valleys initiative.
Promoting Indigenous Manufacturing and Innovation: Leveraging the Strategic Interventions for Green Hydrogen Transition (SIGHT) Programme under NGHM to incentivise domestic manufacturing of electrolysers, fuel cells and storage technologies, thereby reducing import dependence.
Conclusion
Hydrogen-powered transportation possesses immense potential to transform India's transport sector by reducing emissions, enhancing energy security and promoting technological self-reliance. However, its success depends upon overcoming challenges relating to cost, infrastructure, technology and regulatory frameworks. With sustained policy support and innovation, hydrogen mobility can emerge as a crucial pillar in achieving vision of Net Zero by 2070, energy independence and sustainable transport systems, complementing electrification rather than replacing it.