Hydrogen Infrastructure Market: 6 Decisions That Can Help Businesses Reduce Project Risk and Scale Supply Networks
Hydrogen projects are often evaluated around production capacity, electrolyzer efficiency and the cost of renewable electricity. However, a project can produce hydrogen successfully and still struggle to become commercially viable if storage is inadequate, transport infrastructure is unavailable or nearby customers cannot commit to purchasing the output.
These challenges are making infrastructure planning a central part of hydrogen investment decisions. Producers, industrial buyers, equipment manufacturers, utilities and port operators need to assess not only how hydrogen will be produced, but also how it will be stored, moved and delivered at a competitive cost.
The global hydrogen infrastructure market was valued at USD 7.63 billion in 2025 and is projected to reach USD 19.57 billion by 2035, growing at a CAGR of 9.9% from 2026 to 2035. Pipelines accounted for 21.9% of the market in 2025, while storage infrastructure is identified as a fast-growing area as projects seek more reliable supply and distribution systems.
For businesses, the opportunity is not simply to build more infrastructure. It is to determine which assets are needed, where they should be located and whether expected demand can support their long-term utilization.
1. Should Infrastructure Be Built Before Demand Is Fully Established?
Hydrogen infrastructure requires substantial upfront investment, but the timing of that investment can be difficult to determine. Producers may hesitate to expand without reliable buyers, while industrial customers may avoid switching fuels until supply is dependable and competitively priced.
This creates a coordination problem: production, transport, storage and consumption need to develop together.
The scale of planned infrastructure illustrates the gap between ambition and delivery. The market page reports that more than 40,000 km of hydrogen pipeline projects have been announced through 2035, while only a small proportion is operational or backed by committed investment. Announced projects therefore should not be treated as equivalent to infrastructure that is financed, permitted or ready to operate.
Businesses can reduce exposure by evaluating projects in stages:
• Confirm demand: Identify customers, expected annual consumption, delivery schedules and acceptable price ranges.
• Secure commitments: Assess whether buyers are prepared to sign long-term supply or offtake agreements.
• Match infrastructure to project maturity: Start with facilities that support confirmed demand before committing to a much larger network.
• Plan expansion options: Preserve the ability to increase capacity when additional customers or production volumes become commercially credible.
The key decision is whether the proposed infrastructure can serve a defined customer base in its initial phase, rather than depending entirely on future market growth.
2. Which Transport Model Fits the Distance, Volume and Customer Base?
Pipelines are useful for moving large volumes between production sites, storage facilities and industrial users with relatively stable demand. However, they require significant capital, suitable routes, regulatory approvals and sufficient throughput to justify investment.
Other delivery models may be more practical during early project development. Compressed hydrogen can be transported by tube trailers, while liquefied hydrogen and hydrogen-derived products such as ammonia may suit different distances, volumes and handling requirements.
The appropriate choice depends on the complete supply chain—not transport cost alone.
Before choosing a delivery model, businesses should compare:
• Volume and frequency: Does the customer require continuous industrial supply or intermittent deliveries?
• Distance and geography: Is a pipeline feasible, or would road, rail or maritime logistics offer more flexibility?
• Conversion and handling: What additional energy, equipment and safety controls are needed for compression, liquefaction or conversion to derivatives?
• Future demand: Will the chosen approach remain economical if consumption grows?
• Infrastructure access: Are suitable pipelines, terminals, loading facilities or distribution partners available?
For example, a single industrial customer near a production facility may support a dedicated connection. A project serving several dispersed customers may initially need a more flexible distribution model.
The commercial assessment should compare the cost of delivered hydrogen, including handling, losses, storage and final delivery, rather than focusing only on the cost of production.
3. How Much Storage Capacity Is Actually Required?
Hydrogen production and consumption do not always occur at the same rate. Renewable electricity availability can fluctuate, industrial customers may need continuous supply, and transportation networks can experience delivery delays. Without adequate storage, these mismatches can affect plant utilization and customer reliability.
Storage requirements vary by application. On-site tanks may help manage short-term operational fluctuations, while larger storage facilities can support supply balancing across longer periods. Underground storage may be suitable for some large-scale projects where geology, safety, infrastructure access and economics align.
The market page identifies storage as a fast-growing infrastructure segment and reports that announced underground hydrogen-storage projects could provide approximately 11 TWh of capacity by 2035. These are prospective projects, not all operating capacity.
Businesses should determine storage requirements by considering:
• Expected production variability and planned maintenance.
• Daily and seasonal changes in customer demand.
• The consequences of a supply interruption.
• Buffer capacity required during transport or equipment outages.
• The cost of storage compared with alternative measures, such as backup supply or additional production capacity.
Oversizing storage can tie up capital in underused assets. Undersizing it can increase emergency procurement costs and reduce customer confidence. Scenario modelling can help determine the capacity needed for normal operations and credible disruption events.
4. Where Should Infrastructure Be Located to Support Industrial Demand?
Hydrogen infrastructure is more likely to be commercially useful when production, storage, transport and consumption are planned as a connected system. Industrial clusters can offer advantages because refineries, fertilizer producers, chemical facilities and other large users may provide concentrated demand.
India's National Green Hydrogen Mission is supporting development across the value chain. In March 2026, the Ministry of New and Renewable Energy reported that 3,000 MW per year of electrolyzer manufacturing capacity had been awarded to 15 companies and 862,000 tonnes per year of green hydrogen production capacity to 18 companies. The government also reported price discovery for the supply of 724,000 tonnes per year of green ammonia to 13 fertilizer units.
These commitments indicate why infrastructure planning needs to consider industrial demand and logistics alongside production incentives. Awarded capacity and planned supply do not, by themselves, confirm that all supporting facilities have been completed or that every project will operate at full capacity.
Port infrastructure is another important consideration. In February 2026, the Paradip Port Authority reported approval of a dedicated jetty and associated facilities for green hydrogen, ammonia and other liquid cargo, with an estimated investment of ₹797.17 crore and planned handling capacity of 4 million tonnes per annum. The project includes storage systems, pipelines and handling equipment.
For project developers, location assessments should account for:
• Proximity to reliable renewable electricity or other suitable energy inputs.
• Access to industrial customers and credible offtake agreements.
• Availability of water, land, utilities and required permits.
• Connections to ports, roads, pipelines and storage facilities.
• Potential to share infrastructure with other producers and customers.
A location with low-cost energy may not be the strongest option if delivery costs, water constraints or the absence of nearby buyers weaken the overall project economics.
5. Which Components and Suppliers Are Critical to Reliable Operations?
Hydrogen infrastructure includes more than production equipment. Compressors, storage tanks and cylinders, pipelines, valves, pumps, flow meters, dispensers, monitoring systems and control equipment all affect system reliability.
Procurement decisions should reflect the operating conditions of the complete installation. Hydrogen's material compatibility and leakage characteristics require careful engineering, and components must be suitable for the relevant pressure, temperature, purity and duty cycle.
Businesses can strengthen procurement decisions by evaluating:
• Technical suitability: Confirm that equipment meets the project's design conditions and relevant safety requirements.
• Supplier capability: Review manufacturing capacity, installation experience, maintenance support and spare-parts availability.
• Lifecycle cost: Compare energy use, maintenance, replacement cycles and expected downtime—not just initial purchase prices.
• Interoperability: Ensure that equipment and control systems can work together across production, storage and distribution.
• Expansion flexibility: Determine whether the selected systems can accommodate future capacity increases without extensive redesign.
Supplier selection should also consider delivery schedules and commissioning support. A delay in a critical compressor, valve or storage system can affect the readiness of the wider project, even if the main production equipment is complete.
For buyers, the practical priority is to identify components whose failure could stop supply, create safety risks or delay commissioning, then establish appropriate quality assurance and contingency arrangements.
6. How Should Businesses Measure Commercial Readiness and Project Performance?
A project can have strong headline production capacity and still underperform if utilization is low, delivery costs are high or demand develops more slowly than expected. Businesses therefore need operational and commercial indicators that show whether infrastructure is delivering value.
Useful indicators include:
• Asset utilization: The proportion of available capacity being used in normal operations.
• Delivered hydrogen cost: The total cost of getting hydrogen to the customer, including storage and transport.
• Supply reliability: The frequency and duration of interruptions.
• Offtake coverage: The share of planned output supported by credible customer commitments.
• Project execution: Progress on permits, financing, construction, commissioning and customer connections.
• Safety and maintenance: Equipment performance, incident prevention and planned maintenance completion.
Businesses should test these indicators under several scenarios, including lower-than-expected demand, delays in connecting customers, higher electricity prices and slower development of transport networks.
Policy and certification requirements also matter. In June 2026, India's Ministry of New and Renewable Energy announced the launch of the Green Hydrogen Certification Portal to support transparency and regulatory compliance under the Green Hydrogen Certification Scheme of India.
For producers and buyers, certification and traceability should be incorporated into project planning early, with clear responsibility for documenting hydrogen production attributes and meeting applicable requirements.
Conclusion
Hydrogen infrastructure development is moving beyond individual production facilities toward connected systems for storage, transportation, distribution and end use. However, announced investment and production capacity do not guarantee that a project will be commercially successful.
The most important decisions concern demand certainty, delivery methods, storage capacity, site selection, component reliability and measurable project performance. Businesses that assess these factors together can better manage capital exposure and avoid building assets that are poorly matched to customer needs.
As hydrogen supply chains mature, the strongest projects are likely to be those that connect infrastructure investment to credible demand, reliable operations and a realistic plan for expansion.
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