Why Composite Infrastructure Is Replacing Steel in Modern Projects

In an exclusive conversation with Industry Outlook, Ashwani Sharma, Sales Head at Helipole, discusses the growing shift from traditional steel poles to composite FRP solutions in modern infrastructure. He shares insights on market trends, adoption challenges, manufacturing innovation, and emerging demand across utilities, telecom, and renewable energy sectors. Ashwani also highlights the importance of lifecycle economics, resilient materials, and strategic investments in shaping the future of composite infrastructure while offering his perspective on long-term industry growth and market opportunities.

What market trends are accelerating the shift from steel poles to composite FRP solutions in modern infrastructure development?

Honestly, the shift is not being driven by one big trend. It is the slow accumulation of small failures of the incumbent. Galvanised steel and concrete were never designed for the kind of operating environments we are putting poles into today: saline coastal stretches, distributed solar in the middle of nowhere, dense urban networks where every replacement disrupts a market street for a day. Once an asset owner starts adding up the true cost of a pole over its life, instead of just the purchase price, the conversation becomes very different.

Lifecycle economics is the loudest of these. Corrosion-driven failures, the cost of bringing a crane and a four-man crew to replace a heavy pole in difficult terrain, the periodic painting cycles that nobody actually budgets for properly. A material that needs none of this and can be installed by two people with a small vehicle starts to look attractive once the math is done honestly.

Renewables and digital infrastructure are pushing in the same direction. Solar parks, EV corridors, telecom small-cells, smart-city installations: in all of these, logistics and installation speed matter more than unit price. And quietly, climate resilience has moved from being a sustainability slide to being an actual procurement requirement. Specifiers are now asking what happens to a pole in a cyclone or a 50-year flood, and they expect a real answer.

One thing I have learned to do early in any customer conversation is figure out which segment the buyer is coming from before pitching anything. A solar EPC, a state utility procurement officer, and a telecom infrastructure manager are asking three completely different questions of the same pole. One wants installation speed. One wants standards-cover for a defensible internal decision. One wants total cost of ownership over fifteen years. The product does not change, but the conversation has to.

What are the biggest adoption barriers for composite infrastructure solutions, and how can the industry address them effectively?

The biggest barrier is not technical. It is institutional memory. Procurement systems in our utilities, our railways, our PWDs are built around steel and concrete. The drawing standards, the rate schedules, the empanelled test labs, the inspection checklists, even the way warranties are written — every piece of that machinery assumes a metallic pole. A composite pole walking into that system does not get evaluated; it gets disqualified on a clause that was written before the material existed.

Closely tied to that is the absence of a single, credible national standard for composite poles. We work to international references like IEC, ASTM and IEEE, and to bespoke customer specifications. But a buyer in a state utility has no clean document they can cite to defend the choice internally. That ambiguity creates personal risk for the individual taking the decision, and individuals do not take risk on behalf of institutions.

The third barrier, and one that is underdiscussed, is workmanship at installation. A composite pole is unforgiving. Drill it incorrectly, ignore the grounding detail, skip the foundation prep, and you create the very failure mode you were trying to design out. Steel hides bad practice; composites do not.

So the work for the industry is fairly clear, even if it is slow. We have to get into the standards-writing rooms instead of waiting for someone to invite us. We have to publish real field data — actual installations, actual years in service, actual failure rates — so that the procurement officer has cover to defend the decision. And we have to treat installer training as a product in itself, not as something we hand over in a one-page leaflet. Whoever solves the installer problem properly will end up owning this market.

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How is innovation in R&D and manufacturing shaping competitiveness within the global composite infrastructure sector?

I want to narrow the lens here, because adjacent composite sectors like pressure vessels and aerospace have already industrialised. The honest picture for composite poles is that the manufacturing is still largely an artisan craft dressed up as an industry. Filament winding for poles, in most plants you would visit, is one experienced operator and a hand-tuned machine producing one good part at a time. That model has served the sector for decades, but it does not scale to the volumes infrastructure customers are starting to ask for, and it does not survive the kind of audit a serious utility customer is starting to bring.

So the real frontier in R&D right now, in my view, is not in resin chemistry or fibre architecture. Those have moved incrementally for a decade. The frontier is process discipline. The next wave of competitiveness will go to manufacturers who industrialise what is today still craft work: standardising mandrel design across product families, instrumenting machines so that we have actual data and not just operator memory, building structured QA records for each part as it is produced, training operators against documented procedures rather than tacit knowledge passed shoulder-to-shoulder. None of this is glamorous. But all of it is what the customer is starting to ask for.

A second front, and one I find more interesting on the design side, is integration. A pole is no longer just a pole. It is increasingly a structural host for cameras, antennas, sensors, EV charging hardware, even small wind turbines. The designs that win in the next few years will be the ones where the composite structure and the embedded systems are co-engineered from the start: cable routing, mounting hard-points, EMI shielding all considered in the layup, not added later as brackets and clamps after the pole has already been wound.

What will separate leaders from the rest of the pack over the next five years is not who can make a composite pole. It is who can make ten thousand of them, made the same way each time, on schedule, with paperwork to prove it. The bar is moving. Most of us, including me, are still climbing toward it.

Which industries or regions are expected to drive the strongest demand for composite infrastructure solutions in the coming years?

Demand is going to come from two very different directions, and the firms that win will be the ones positioned for both.

One is the high-volume utility-grade segment in geographies where steel simply does not survive: long coastal stretches, island networks, regions where galvanising standards are inconsistent and lifecycle replacement is painful. These markets are no longer in the experimentation phase. They are starting to tender at scale, and the discussions are shifting from one-off pilots to multi-year framework agreements faster than most of us in the sector expected even three years ago.

The other is the specialised, premium segment in mature markets. Solar farm developers who care about installation speed more than unit price. Telecom operators rolling out small-cell networks where weight and corrosion drive total cost of ownership. EV charging networks where the pole is part of the customer-facing brand. This segment is smaller in tonnage but commands the margin and pulls the technology forward.

Geographically, I expect the next decade to see the manufacturing centre of gravity move toward Asia, while demand diversifies across multiple emerging-market regions. Europe and North America will continue to lead on technology and on standards, but the volume will increasingly be both made and consumed elsewhere.

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How should market leaders balance investments in technology, production capacity, and expansion while reducing risk?

The mistake I see most often, in our industry and in adjacent ones, is treating these as three separate budget lines competing for the same pool of capital. They are not three decisions. They are one decision in three forms.

The discipline I have learned to impose is sequencing. Technology investment has to lead. If your process is not under statistical control before you scale, you are simply scaling defects. Capacity comes second, and only against committed demand, not forecast demand. Speculative capacity in this sector is the single fastest way to destroy a balance sheet. Geographic expansion comes third, and it should follow customers, not precede them. The companies that build a plant first and then go looking for orders almost always end up running it at thirty per cent utilisation for the next three years.

Risk reduction in this business is not really about being cautious. It is about being honest with yourself. Honest about how long a customer qualification cycle actually takes (eighteen to thirty months in utility markets, not the six months your sales team will quote you in the budget meeting). Honest about how much working capital a long order cycle is going to consume. Honest about the difference between a letter of intent and a purchase order. Leaders who internalise these timelines make better capital decisions. The ones who do not end up running fundraising drives instead of factories.

One other point I have come to believe strongly: the strongest hedge in a capital-intensive business is product modularity. The more your manufacturing line can pivot between adjacent product families, the less your capacity bet depends on any single market call being right.

How do you see the composite infrastructure market evolving over the next decade as demand for resilient materials continues to grow?

The next decade, in my view, is the decade composites stop being an alternative material and start being a default specification for a defined set of applications. That sounds like a small linguistic shift. Commercially, it is enormous. Once a material moves from alternative to default, it stops competing on price against the incumbent and starts competing on capability against other defaults, which is a much better place to be.

I expect three things to play out. Consolidation, first. The long tail of small composite fabricators will not survive the move to industrial-grade quality systems, and the working capital demands of utility-scale orders. The market will reorganise around a smaller number of larger, more vertically integrated players. Standards convergence, second. The proliferating bespoke specifications we deal with today will collapse into a manageable number of regional standards, and the companies that participated in writing them will have a structural advantage for a decade after. And then the emergence of the composite pole as a platform, not a passive structure: an active node in a smart grid, a smart city, a connected highway. The revenue earned per pole, when designed properly, can be several times the unit price of the pole itself.

The companies that will struggle in this decade are the ones that mistake a moment of high demand for permanent demand and over-invest in a single product family. The ones that will do well are those who built optionality — in product mix, in geography, in customer base — and had the patience to let the market come to them.

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What advice would you give to industry leaders and investors looking to enter or expand within the composite infrastructure market?

To leaders entering this market, I would say: please do not fall in love with the material. The composite is the easy part. Everything around it — qualification, standards, financing, installation, after-sales support — is where the real work lives. If you cannot describe in one minute how a customer is going to buy your product, install it, warranty it, and eventually replace it, you are not yet ready to build the factory.

To investors, my caution would be on revenue forecasts in this sector. Sales cycles are long, payment cycles are longer, and the working capital absorption is unforgiving. A fast-growing composite manufacturer can run out of cash twice on the way to becoming properly profitable. Look at the order book composition — concentration, geography, customer credit quality — before you look at the topline number.

To both: the firms that will define this industry over the next decade will not be the ones with the cleverest material science. They will be the ones who took the trouble to industrialise the boring parts — the QA documentation, the installer training, the field service network, the customer financing options — while everyone else was still arguing about resin systems. That is the unglamorous truth of this business. It is also the opportunity.