Beyond the Chemical Industry: Building India's Molecular Transformation Capability

Part I: The Case for a Molecular Economy 

India wants to build a chemical industry worth close to $1 trillion by 2040.

The ambition is not fanciful. The NITI Aayog, in a recent report titled "Chemical Industry: Powering India's participation in Global Value Chains", released on 3 July, has projected that India's chemicals market, valued at around $220 billion in 2023, could reach roughly $400-450 billion by 2030 and $850 billion-1 trillion by 2040. It has also identified several structural constraints: dependence on imported feedstocks and speciality chemicals, inadequate common-user infrastructure, logistics inefficiencies, regulatory complexity, and shortages of skilled talent.

The Union government has now begun putting physical infrastructure behind the ambition. On 24 July, it approved the BHAVYA Rasayan Scheme that provisions ₹3,030 crore to establish three dedicated chemical parks, with central assistance of up to ₹1,000 crore per park. The parks are envisaged as large, contiguous industrial ecosystems with common infrastructure including water systems, common effluent treatment, hazardous-waste facilities, solvent recovery, steam, pipelines, logistics and warehousing.

These are important steps.

But they also raise a more fundamental question.

What exactly does India need to build if it wants a trillion-dollar chemical economy?

The answer, I would suggest, is considerably larger than a chemical industry.

India needs to build a national molecular-transformation capability.

And this requires us to examine not merely the size of the industry we want, but the industrial architecture that would make such an industry possible.

Are We Starting at the Wrong End?

The contemporary policy conversation about chemicals naturally gravitates towards numbers.

How much can India produce?

How much can it export?

How much investment can it attract?

How many jobs can it create?

How much of the global chemicals market can it capture?

These are all legitimate questions. Indeed, India's relatively small share of global chemical consumption and value chains, despite its status as one of the world's largest chemical producers, demonstrates that there is substantial room for expansion. NITI Aayog has argued that India could increase its global value-chain share from around 3-3.5% to 5-6% by 2030 and generate substantial additional exports and employment.

But there is a danger in beginning the industrial-policy discussion with the desired output rather than with the capabilities required to generate it.

The difference is subtle but important.

One approach is:

investment → production → exports → jobs.

The other is:

resources → infrastructure → science → engineering → translation → industrial capability → production → exports → jobs.

The second pathway takes longer to articulate. It is less headline-friendly. It requires government, industry, universities, infrastructure providers and regulators to think together.

But it is also much more likely to produce durable industrial depth.

This matters particularly because the chemical industry is not one industry in any meaningful operational sense.

It is an enormous collection of activities involving different molecules, feedstocks, processes, technologies, risks and downstream applications.

And therefore, perhaps the central question should not be:

How can the government help India's chemical industry become bigger?

It should be:

What national capabilities must India build so that a large, sophisticated and sustainable chemical ecosystem can emerge?

That distinction could determine whether India's chemical ambition produces a collection of spectacular industrial success stories—or a genuinely deep industrial ecosystem.

The Limits of an Industry-Led Model

The private sector obviously has to play the leading role in building commercially viable chemical capacity.

Companies possess the capital, market knowledge, entrepreneurial incentives and application-specific technical knowledge necessary to decide which products should be manufactured and where investment should flow.

The government should not attempt to substitute itself for that entrepreneurial function.

But there is another mistake that would be equally damaging:

assuming that the private sector can or should build the entire ecosystem around itself.

A recent interaction between Union Chemicals and Fertilizers Minister J P Nadda and chemical industry leaders, that took place on 24 August, provides an interesting illustration of the prevailing model. The meeting sought industry inputs on a strategic roadmap for the sector, with the government reiterating its willingness to work with industry and consider measures to improve competitiveness, resilience and India's position in global value chains. Industry, in turn, raised issues including financing for capital-intensive upstream projects, trade remedies, R&D support, technology acquisition, clearances, and a national feedstock policy.

It was a necessary dialogue.

But there is a larger institutional question:

Who takes responsibility for building the capabilities that no individual company has sufficient incentive to build?

A chemical company may have every reason to construct its own plant.

It may have reason to secure its own feedstock.

It may develop its own process technology.

It may build a dedicated logistics arrangement.

It may establish its own laboratory.

But it does not necessarily have an incentive to establish:

- a national system for identifying future molecular-feedstock vulnerabilities;

- distributed upstream processing capacity across several resource regions;

- common pilot plants accessible to multiple companies;

- shared testing and certification infrastructure;

- long-horizon research into alternative feedstocks;

- regional chemical emergency-response systems;

- university-based process-development laboratories;

- common chemical logistics infrastructure;

- redundant supply chains;

- or national systems for recovering strategic materials from industrial waste.

These are ecosystem capabilities.

They benefit individual companies, but their benefits are distributed across many companies and may emerge over a much longer time horizon than an individual investment cycle.

This is precisely where the state has a distinctive role.

The government should not build the chemical industry itself.

But neither should it outsource the construction of the chemical ecosystem to the chemical industry.

That is the distinction I think India's current discussion needs to sharpen.

The Missing Middle

This problem is not unique to chemicals.

It is a recurring feature of India's industrial development.

India often succeeds at creating one end of a capability chain and another end, but struggles to construct the institutions and infrastructure that connect them.

We have:

resources

and

manufacturing ambitions.

scientists

and

industrial companies.

engineering talent

and

entrepreneurs.

But between these capabilities lie numerous translation systems.

The pattern can be expressed simply:

resource → processing → chemistry → material → engineering → manufacturing → application.

Every arrow represents an accumulation of knowledge and infrastructure.

How is a mineral deposit transformed into a purified industrial feedstock?

How is that feedstock converted into an intermediate?

How does the intermediate become a speciality chemical?

How does that speciality chemical become a functional material?

How is that material tested?

Who certifies it?

Who develops the manufacturing process?

Who produces it at pilot scale?

Who validates it for an automobile, semiconductor, battery, pharmaceutical or defence application?

Who develops the safety protocols?

Who trains the technicians?

Who transports it?

Who recovers it at the end of its useful life?

The factory is only one part of this chain.

The middle builds the ecosystem.

From the Chemical Industry to the Molecular Economy

This is why I think the phrase molecular economy is more useful than simply "chemical industry".

A chemical industry is conventionally understood as a collection of companies producing chemical products.

A molecular economy is a broader industrial capability:

the ability to transform matter from one useful form into another, with increasing levels of scientific, engineering, and economic sophistication.

Minerals can become compounds, metals, alloys and advanced materials.

Biomass can become platform biochemicals, polymers, fuels, pharmaceuticals and biomaterials.

Hydrocarbons can become basic petrochemicals, intermediates, polymers and speciality chemicals.

Recovered materials can become new feedstocks.

Existing products can become sources of valuable molecules and materials.

The unit of analysis therefore shifts.

Instead of asking only:

Which industry does this product belong to?

we can ask:

What transformation capability produced it, and what transformation capability could use it next?

This makes chemistry part of a much larger national industrial system.

It also makes it possible to connect sectors that conventional policy silos often separate.

Mineral chemistry connects to metallurgy and advanced materials.

Biochemistry connects agriculture to pharmaceuticals, materials and industrial biotechnology.

Petrochemistry connects energy infrastructure to polymers and manufacturing.

Electronic chemicals connect molecular science to semiconductors.

Battery materials connect minerals, chemistry, recycling and advanced manufacturing.

The boundaries between industries remain real.

But beneath them lies a common transformation architecture.

Two Resource Bases, Not One

Once we think in terms of a molecular economy, another possibility becomes visible.

India does not have merely one resource base.

It has two.

The first is the conventional resource base:

- minerals and critical minerals;

- biomass and agricultural resources;

- hydrocarbons;

- other geological resources.

The second is the enormous stock of materials that India has already produced and accumulated.

As industrialisation deepens, that stock will become increasingly valuable.

Consider an end-of-life vehicle.

It contains steel, aluminium, copper, polymers, rubber, glass, electronics and numerous other engineered materials.

An electronic device contains copper, aluminium, precious metals, speciality materials, polymers and semiconductor components.

A spent battery contains potentially valuable streams of lithium, nickel, cobalt, manganese, graphite, copper and aluminium.

Agricultural residues contain carbon, cellulose, lignin, oils, sugars and other potentially useful molecules.

Textile waste contains fibres and polymers that can potentially be recovered and transformed.

Petrochemical waste can potentially become another source of chemical feedstock.

These materials are often classified simply as waste because the existing industrial system cannot economically recover them.

But technological capability changes the definition of waste.

A material that is waste at one level of technological capability can become a resource at another.

This is why the circular economy should not be treated merely as an environmental appendage to industrial policy.

It can become a second feedstock system for India's molecular economy.

From Extraction to Transformation—and Transformation Again

The conventional industrial model is largely linear:

resource → product → consumption → waste.

A molecular economy should increasingly become:

resource → transformation → product → recovery → transformation → new product.

The first transformation may involve a mineral extracted from the earth.

The second may involve recovering that mineral from a discarded product.

An end-of-life vehicle can become a source of metals.

Electronic waste can become a source of refined materials.

Battery waste can become a source of battery minerals.

Textile waste can become regenerated fibres.

Agricultural residues can become biochemicals.

Plastic waste can, where technically and economically appropriate, become recovered polymer or chemical feedstock.

Not every recycling process is molecular transformation. Some is essentially mechanical recovery.

But processes such as hydrometallurgy, refining, depolymerisation, chemical recycling and alloy engineering clearly involve molecular or materials transformation.

This distinction is important because it prevents "circular economy" from becoming merely another policy label.

The deeper objective is continuous resource transformation.

India's future resource base can therefore increasingly be thought of as:

underground + biological + hydrocarbon + above-ground anthropogenic.

That is a very different conception of resource sovereignty from simply securing access to mines and oilfields.

Three Primary Foundations

Within this broader molecular economy, three major primary feedstock foundations remain particularly important.

1. Minerals and critical materials

The broad pathway is:

mineral resource → separation → beneficiation → purification → basic compounds → materials.

This includes critical minerals, speciality metals, battery materials, electronic materials and advanced alloys.

2. Biomass

The pathway is:

biomass → biological/chemical conversion → platform biochemicals → intermediates → materials and products.

This connects directly to the idea of building a middle layer of bio-industries rather than treating biomass only as food, fuel or raw agricultural output.

Hydrocarbons

The familiar pathway is:

petroleum/gas → basic petrochemicals → intermediates → polymers and speciality chemicals.

This does not imply that India's future industrial system should remain permanently dependent on fossil carbon.

It simply recognises that hydrocarbons remain one of the foundational feedstock systems of modern industry while alternative feedstocks—including biomass, recovered carbon and other lower-carbon pathways—can increasingly expand the molecular resource base.

The important point is that these three foundations should not become isolated policy domains.

They can complement one another.

A mineral transformation system can require chemicals.

A petrochemical system can provide materials for mining and recycling equipment.

Biochemical systems can replace some petrochemical inputs.

Recycling can recover materials from products originally manufactured using all three feedstock classes.

The molecular economy is therefore inherently interconnected.

Three Layers of Transformation

This leads to the architecture at the heart of the proposition.

It consists of three broad functional layers.

They should not be interpreted as rigid geographical zones, nor as three stages through which every molecule must pass.

They represent increasing levels of transformation complexity.

Layer I: Distributed Resource Transformation

The first layer converts primary or secondary resources into usable feedstocks, basic chemicals, materials and intermediates.

For minerals:

extraction → collection → separation → beneficiation → purification → basic processing.

For biomass:

collection → preprocessing → conversion → basic biochemicals.

For hydrocarbons:

refining/processing → basic petrochemical feedstocks.

For recovered materials:

collection → dismantling → separation → recovery → purification.

This layer should generally follow resource geography.

But it should not be regarded merely as a feeder system for larger chemical parks.

It can have commercial offtake in its own right.

A mineral concentrate can be sold.

A purified chemical can be a marketable product.

Recovered copper can enter manufacturing.

Processed biomass can become an industrial feedstock.

The three-layer architecture therefore does not mean that every product must climb all three layers.

Rather, it means that India should possess the capability to move material progressively further whenever technology, economics and industrial demand justify it.

Layer II: The Molecular-Transformation Middle

This is where large chemical parks become particularly important.

Here the pathway becomes:

intermediates/feedstocks → speciality chemicals → functional materials → application-specific inputs.

The park can provide common infrastructure that individual firms may find difficult or inefficient to build independently:

- water;

- steam;

- industrial gases;

- pipelines;

- storage;

- waste treatment;

- laboratories;

- testing;

- pilot facilities;

- specialised logistics;

- emergency systems.

But the true value of this layer lies deeper.

It is where process knowledge accumulates.

It is where India can learn to take relatively standardised feedstocks and repeatedly transform them into more sophisticated molecules and materials.

This is the missing middle.

Layer III: Advanced Industrial Transformation

The third layer deals with increasingly demanding materials and molecules:

high-purity/highly engineered molecules and materials → qualification → industrial validation → advanced manufacturing.

This is where the requirements of semiconductors, batteries, pharmaceuticals, electronics, aerospace, defence and advanced manufacturing become increasingly important.

Purity, consistency, reliability, certification and application-specific performance matter enormously.

And here the transformation process becomes inseparable from engineering and industrial validation.

The crucial point is that the three layers need to be connected without being forced into one place.

That is where the next part of the argument begins.

Part II — Building the Missing Middle

The crucial point is that the three layers need to be connected without being forced into one place.

That distinction is central.

Industrial policy often treats integration as synonymous with strength. If an upstream resource is available, why not process it, transform it and manufacture the final product in the same complex? If a large company possesses the capital to do all of it, why not allow it to?

Sometimes that is exactly the right answer.

But it cannot become the default architecture for an entire national industrial system.

India needs something more subtle:

vertical coordination without compulsory vertical integration.

The difference may sound semantic. It is not.

A network, not a pyramid of factories

The three layers should be understood primarily as functions, rather than fixed locations or ownership categories.

A Layer-I facility can develop sophisticated purification capabilities.

A Layer-II chemical park can incorporate selected upstream processing where co-location makes economic or technological sense.

A Layer-II facility can develop pilot-scale technologies approaching Layer III.

An advanced industrial cluster may retain some upstream processing because the purity or safety requirements of its applications demand it.

The architecture should therefore remain porous.

What should be avoided is the assumption that every major value chain must be owned and controlled by a single industrial entity.

Excessive vertical integration can create concentration in:

- resources;

- technology;

- infrastructure;

- geography;

- companies.

It can also create single points of failure.

If one company becomes the dominant processor of a strategically important resource, a disruption at that company can become a national disruption. If one geography contains the overwhelming majority of transformation capacity, an environmental accident, logistical failure or natural disaster can affect an entire value chain.

Competition matters too.

A distributed ecosystem allows multiple firms to experiment with different processes, technologies and business models.

The national system should therefore provide connectivity while preserving the possibility of competition and redundancy.

A useful principle is:

Integrate where chemistry and engineering demand co-location; distribute where resilience, competition and capability diversity benefit from separation.

This also allows the middle to evolve.

As companies and institutions accumulate knowledge, Layer II can extend downward into more sophisticated resource processing or upward into more advanced materials.

The middle is not a permanent box.

It is a zone of expanding capability.

India's beach sands: one resource base, many possible futures

India's coastal mineral sands provide an unusually useful illustration of this principle.

The simplistic way to describe the opportunity is:

beach sand → titanium.

The more interesting way is:

distributed coastal mineral resources → multiple mineral streams → multiple transformation pathways.

Indian beach sands contain several economically and strategically relevant minerals, including ilmenite, rutile, monazite, zircon, garnet and sillimanite.

This means that the resource is not a single feedstock.

It is a portfolio of feedstocks.

That distinction matters enormously for industrial architecture.

The initial stages—collection, sieving, separation, beneficiation and basic processing—can potentially be distributed across India's relevant coastal regions.

Different mineral streams can then travel into different downstream pathways.

Some may move upward:

basic compounds → speciality chemicals → functional materials → advanced materials.

Others may move sideways:

mineral feedstock → another industrial value chain.

Still others may remain commercially useful at an intermediate stage.

The point is not to maximise the value of one mineral.

It is to maximise the transformation possibilities contained within the resource base.

This is precisely where the idea of a national molecular economy differs from a conventional commodity strategy.

A commodity strategy asks:

How much titanium can we produce?

A molecular-transformation strategy asks:

What molecules and materials can India's coastal mineral resource base ultimately support, and what distributed industrial system would allow different companies and regions to develop those possibilities?

The second question produces a much richer industrial architecture.

The Andhra Pradesh–Adani opportunity—and its caution

The proposed Andhra Pradesh project involving the Adani Group and a major titanium plant is therefore potentially very significant.

It demonstrates that India is not necessarily condemned to remain at the extraction or basic-beneficiation end of its mineral resource chains.

A pathway from mineral sands towards titanium-rich feedstocks and eventually advanced titanium products can potentially connect India's coastal resources to aerospace, defence, engineering and other sophisticated applications.

Some of the technically demanding processes may require technology partnerships or licensing from specialist international companies.

There is nothing inherently undesirable about this.

For an emerging industrial capability, licensing can be a bridge to learning.

The strategic objective should be to ensure that imported technology eventually contributes to the accumulation of domestic process knowledge, engineering capability and innovation.

But the project also illustrates why national architecture matters.

If the dominant model becomes:

one resource → one mineral → one giant project → one anchor company → one integrated downstream chain,

India could inadvertently create the concentration that its resource strategy should be trying to avoid.

The Andhra Pradesh opportunity should therefore be encouraged.

But it should be regarded as one major node in a national network, not as the national network itself.

India's coastal mineral resources are geographically distributed.

The transformation architecture should retain that distribution.

Other coastal states should be able to develop complementary processing and transformation capabilities.

Multiple mineral streams should find multiple markets.

Multiple companies should be able to participate.

And different downstream pathways should be allowed to emerge.

The central government therefore has an important role — not in telling Adani what to manufacture, but in ensuring that one successful project does not inadvertently become a national bottleneck.

That is the difference between promoting an investment and designing an industrial ecosystem.

The middle layer is where the multiplier can become visible

This brings us back to chemical parks.

A large chemical park is valuable not merely because it can accommodate many factories.

Its real potential lies in becoming a shared transformation platform.

Imagine a park receiving feedstocks from multiple sources:

- mineral concentrates;

- purified mineral compounds;

- recycled metals;

- battery-derived materials;

- biomass-derived chemicals;

- petrochemical intermediates;

- industrial by-products.

Different firms can transform these into:

- speciality chemicals;

- functional materials;

- polymers;

- advanced compounds;

- industrial gases;

- battery materials;

- electronic materials;

- application-specific inputs.

The park can provide common infrastructure that would otherwise be prohibitively expensive for smaller firms.

This is particularly important for India's emerging companies.

A start-up may have a promising process but not enough capital to build an entire industrial estate.

A speciality-chemical manufacturer may have the chemistry but not the wastewater infrastructure.

A materials company may need pilot facilities before it can justify a commercial plant.

A recycling company may require sophisticated separation and recovery infrastructure.

A common industrial platform can reduce these barriers.

This is one reason the middle layer can have an unusually high multiplier effect.

It allows many companies to enter transformation activities that would otherwise remain inaccessible.

BHAVYA Rasayan: important infrastructure, but only the beginning

The Union government's BHAVYA Rasayan scheme is significant precisely because it begins to recognise this common-infrastructure problem.

The scheme provides central assistance of up to ₹1,000 crore per chemical park, within a total outlay of ₹3,030 crore, alongside state participation. Its proposed common infrastructure includes facilities such as common effluent-treatment systems, hazardous-waste treatment, water systems, steam, interconnected pipelines, logistics and warehousing.

That is important.

It means the government is not simply saying:

«"Industry, please build chemical factories."»

It is accepting that some infrastructure needs collective provision.

But this should be regarded as the beginning of the architecture, not its endpoint.

A park can have excellent common infrastructure and still fail to become a deep industrial ecosystem if:

- upstream feedstocks are unreliable;

- downstream customers are absent;

- pilot facilities are missing;

- skilled technicians are scarce;

- research institutions are disconnected;

- logistics are poorly designed;

- safety systems are inadequate;

- environmental monitoring is weak;

- companies remain isolated from one another.

The chemical park therefore needs to be designed as part of a larger network.

The three parks should not simply be three large industrial estates.

They could become three early experiments in how India's molecular-transformation middle should work.

Their design should ideally allow learning.

What works in one park should inform the next.

What fails should be corrected rather than replicated.

And future parks should be able to specialise as national capabilities become clearer.

This is how infrastructure itself becomes a learning system.

Chemical logistics: the molecule determines the transport system

There is another reason why chemical parks cannot be treated like generic industrial parks.

Chemicals have specialised logistics requirements.

A package of consumer goods can often be moved using standard trucks and warehouses.

A chemical may require:

- a pressure-rated tank;

- an insulated container;

- a cryogenic system;

- temperature control;

- pressure monitoring;

- specialised rail equipment;

- a pipeline;

- hazardous-material handling;

- specialised loading and unloading infrastructure.

The logistics system is therefore part of the production system.

A chemical that can be produced economically but cannot be transported safely and reliably is not a useful industrial capability.

This has major implications for industrial geography.

The national system needs to connect:

resource regions → Layer-I processing → chemical parks → advanced industrial clusters → ports/export terminals.

Different substances will require different combinations of:

road + rail + pipeline + storage + terminal + specialised vehicle.

And these networks need to be designed before industrial capacity reaches full scale.

Otherwise, India risks repeating a familiar infrastructure problem: building production capacity first and discovering the supporting network later.

Chemical logistics should therefore be treated as a specialised industrial sector in its own right.

This also creates another opportunity for corporate capability accumulation.

A logistics company that develops expertise in hazardous materials, cryogenic transport, specialised tanks, digital tracking and emergency response can itself become a valuable participant in the molecular economy.

GAIL: capability can move across the architecture

GAIL provides a useful example of how such movement can occur.

Its historic strength has been gas transmission and distribution.

But infrastructure businesses can accumulate considerable internal capital, engineering knowledge, operational experience and market intelligence.

That accumulated capability creates opportunities to move into adjacent areas.

GAIL's activities now extend beyond simply transporting gas, including gas processing, LNG, liquid hydrocarbons, petrochemicals and newer energy-related areas.

The important lesson is not that GAIL demonstrates the desirability of vertical integration.

It demonstrates something more useful:

A company can move across layers as its capabilities grow.

This is exactly what a dynamic molecular economy should permit.

A company can begin with logistics.

It can develop processing capability.

It can enter molecular transformation.

It can move into materials.

Another company may move in the opposite direction, beginning with a speciality material and developing its own upstream process.

A third may remain a highly specialised supplier.

There should be no prescribed corporate trajectory.

The national architecture should simply ensure that opportunities for such movement exist.

This is why vertical coordination is preferable to compulsory vertical integration.

Government creates the connective infrastructure.

Companies decide where they can create value.

Safety cannot be an afterthought

If logistics is one horizontal pillar, safety is another—and perhaps an even more important one.

Chemical industrialisation carries risks that ordinary manufacturing does not.

Factories can experience:

- fires;

- explosions;

- pressure failures;

- toxic releases.

And a hazardous chemical does not respect the factory boundary.

A gaseous release can affect neighbouring communities.

A liquid chemical can enter soil or groundwater.

A contaminated effluent stream can damage rivers and ecosystems.

An industrial accident can disrupt roads, railways, electricity and other industries.

Chemical safety therefore has to operate at several levels simultaneously:

worker → factory → neighbourhood → ecosystem → region.

This is why safety must be designed into the industrial architecture.

A sophisticated chemical park needs:

- appropriate spatial planning;

- buffer zones;

- containment;

- gas detection;

- fire protection;

- emergency access;

- evacuation systems;

- hazardous-material routing;

- continuous monitoring;

- trained emergency-response personnel.

The principle should be:

Safety by architecture, not safety by retrofitting.

This is also where environmental sustainability becomes inseparable from industrial capability.

Water consumption, groundwater extraction, emissions, waste generation and ecological impact should be treated as system variables.

A park that produces large quantities of chemicals while exhausting its local water resources or accumulating hazardous waste is not demonstrating industrial capability.

It is accumulating future liabilities.

The chemical park as an industrial organism

A genuinely sophisticated chemical park should therefore be viewed almost as an industrial organism.

It has flows of:

materials

energy

water

chemicals

information

waste

recovered resources.

The goal should be to make these flows increasingly visible, measurable and optimisable.

Where technically feasible:

waste from one process → feedstock for another.

Water should be recovered and reused.

By-products should be identified as potential resources.

Energy systems should be optimised across the park.

Hazardous substances should be tracked through their entire movement.

Digital sensing can make these flows increasingly observable.

The park can thus evolve from a collection of factories into an industrial symbiosis system.

And this is where circular transformation becomes particularly important.

A future chemical park should not necessarily receive only virgin feedstocks.

It could receive:

- recycled metals;

- battery-derived materials;

- recovered polymers;

- industrial residues;

- biomass residues;

- recovered chemical feedstocks.

The distinction between the "resource economy" and the "waste economy" begins to disappear.

The park becomes a place where matter is continuously transformed.

Regulation: one industry, many technical realities

The safety question leads directly to regulation.

There is an interesting institutional paradox here.

The central government increasingly treats chemicals as a unified strategic industry when discussing:

- investment;

- exports;

- infrastructure;

- competitiveness;

- industrial parks.

But the things being regulated are extraordinarily heterogeneous.

Petrochemicals are not pharmaceuticals.

Industrial gases are not electronic chemicals.

Fertilisers are not battery materials.

A speciality polymer is not a defence chemical.

Their production processes, hazards, environmental consequences, and technical standards can differ enormously.

It would therefore be unrealistic to assume that a single conventional "chemical regulator" could possess all the expertise required to regulate this enormous domain.

But the opposite extreme —bcompletely fragmented regulation with no coordinating architecture — can also create gaps.

The better answer may be a coordinated regulatory architecture.

Domain-specific regulators and authorities can retain their technical responsibilities.

But there should be mechanisms for:

- coherent standards;

- clearly defined responsibilities;

- information sharing;

- regional risk assessment;

- cumulative environmental monitoring;

- common safety principles;

- rapid response to emerging technologies.

And here universities and research institutions become important again.

A regulator cannot maintain world-class expertise in every emerging chemical process, material or environmental pathway entirely within its own bureaucracy.

Publicly supported universities can provide independent technical assistance in:

- process safety;

- toxicology;

- environmental chemistry;

- groundwater;

- ecological modelling;

- chemical detection;

- accident analysis.

This should remain distinct from consultancy provided to regulated companies.

The principle is straightforward:

A government that seeks to promote the chemical economy at national scale must possess—or have reliable access to—the technical intelligence necessary to understand its risks at the same scale.

Government's role is not to own the ecosystem

The argument is therefore not for a return to state-owned industrialisation.

Nor is it an argument against private investment.

It is an argument for recognising a category of infrastructure that sits between government and individual enterprise.

Call it ecosystem infrastructure.

It includes:

- shared industrial utilities;

- pilot plants;

- testing facilities;

- specialised logistics;

- safety systems;

- research infrastructure;

- data systems;

- skills infrastructure;

- regulatory intelligence;

- environmental monitoring.

Some of these can eventually become commercial businesses.

Others may need public support because their social value exceeds the returns available to any single investor.

This is precisely where government can make a difference.

It can reduce the cost and uncertainty of entering the molecular-transformation middle without deciding which company must succeed.

It can create the conditions under which several companies can compete.

And it can deliberately avoid creating new dependencies while trying to reduce old ones.

The objective should be neither state control nor private-sector laissez-faire.

It should be system-level coordination with decentralised enterprise.

That distinction becomes even more important when we consider who should coordinate the physical and industrial architecture.

Part III — Building the Capability Ecosystem

A network of chemical parks, processing facilities and logistics corridors can move molecules around the country. But infrastructure alone cannot make an industrial ecosystem intelligent.

The harder question is whether the system can learn.

Who discovers a new way of extracting a difficult mineral? Who determines whether an agricultural residue can become a commercially useful biochemical? Who develops a safer process for handling a hazardous molecule? Who takes a laboratory discovery and turns it into a pilot plant? Who determines why a promising material fails during industrial production—and feeds that knowledge back into research?

And, increasingly, who gives Indian industry access to computational capabilities powerful enough to discover molecules and materials that conventional experimentation may struggle to find?

These are not questions that can be answered by industrial land, tax incentives or factory investment alone.

They concern the capability ecosystem surrounding the factories.

This is perhaps where the distinction between an ordinary industrial policy and a molecular-transformation strategy becomes clearest. The former can create production capacity. The latter must create the ability to continually improve production capacity.

That requires institutions that can look decades ahead while remaining connected to today's industrial problems.

It requires universities that do more than supply graduates. It requires research institutions that can move from resource intelligence to process engineering and from computational discovery to physical validation. It requires shared supercomputing and emerging quantum-computing capabilities. It requires technicians who understand actual industrial processes, not merely theoretical curricula. And it requires government institutions capable of seeing the entire network rather than only the individual projects within it.

In other words, India's molecular economy needs not only a physical middle, but an institutional middle.

The first connects resources to industry.

The second connects knowledge to capability.

And it is the second that can determine whether the first keeps advancing—or eventually becomes another generation of industrial infrastructure that simply ages in place.

DPIIT as the coordinator of the network

No individual company can reasonably be expected to coordinate a national molecular-transformation system.

There may eventually be hundreds or thousands of companies operating across resource extraction, recycling, basic processing, chemicals, speciality materials, logistics and advanced manufacturing.

Their commercial interests will naturally differ.

A company will optimise its own investment.

A chemical park operator will optimise its park.

A logistics provider will optimise its network.

A university will pursue research.

A manufacturer will seek reliable inputs at competitive prices.

None of these actors, individually, has responsibility for ensuring that the entire chain works.

This is where the role of government becomes distinctive.

DPIIT, in particular, could function as a system-level coordinator rather than simply an investment facilitator.

Its task would be to understand the evolving national map of molecular capabilities.

Where are the resource-processing bottlenecks?

Which intermediates are missing?

Where is India excessively dependent on imports?

Which chemical parks will require which feedstocks?

Which advanced manufacturing clusters will require new materials?

Where will specialised logistics become a constraint?

Which technologies are approaching commercial readiness?

Which research capabilities need to be connected to industry?

Where is excessive concentration developing?

These are not questions that individual companies can answer for the national system.

They require a form of industrial intelligence.

DPIIT could therefore maintain a dynamic national molecular-transformation capability map — one that connects resources, processing facilities, chemical parks, materials producers, industrial clusters, universities, logistics networks, and downstream demand.

The objective would not be central planning in the old sense.

It would be coordination of information and capabilities.

Government should know enough about the system to identify gaps before they become crises.

NICDC and the physical architecture

The role of NICDC and the institutions developing the physical industrial parks would be complementary.

If DPIIT coordinates the value chain, park-level institutions, especially NICDC, should coordinate the physical ecosystem.

That includes the mundane but decisive questions that determine whether an industrial cluster actually works:

- Is sufficient land available?

- Is electricity reliable?

- Is there adequate industrial water?

- What is the groundwater impact?

- Are industrial gases available?

- Is oxygen infrastructure adequate?

- Can steam be supplied efficiently?

- Are pipelines properly planned?

- Can hazardous materials be moved safely?

- Is rail connectivity available?

- Where does wastewater go?

- Where does hazardous waste go?

- How are emergencies handled?

These are not glamorous questions.

They are also precisely the questions that can determine whether a chemical park becomes a successful industrial ecosystem or an expensive collection of plots.

The park authority should therefore have a continuing responsibility to measure resource use and environmental performance.

Water, groundwater, energy, emissions, and waste should not be treated merely as compliance variables.

They are part of the park's industrial operating system.

Universities should become capability institutions

But physical infrastructure alone cannot create the molecular economy.

India also needs institutions capable of sustaining the knowledge that flows through it.

This is where universities and IISc-like research-focused institutions become particularly important.

Their role should extend well beyond producing graduates for industry.

They should become capability anchors.

At the resource end, they could help identify and characterise India's mineral and biological resources:

- What resources exist?

- In what concentrations?

- In which regions?

- What can be economically processed?

- What contaminants or ecological constraints exist?

- What new extraction or separation technologies could improve recovery?

This is particularly important for critical minerals and difficult-to-process resources.

Resource sovereignty should not mean simply owning the resource.

It should mean possessing sufficient knowledge to identify, extract, separate, transport and process it sustainably.

That is a much deeper form of sovereignty.

The same principle applies to biomass.

Universities can identify useful biological resources and residues, develop conversion pathways and determine how these can become biochemical feedstocks rather than remaining low-value residues.

At the middle layer, research institutions can develop:

- catalysts;

- chemical processes;

- speciality molecules;

- functional materials;

- purification techniques;

- process intensification;

- pilot-scale systems.

At the advanced layer, they can work on:

- high-purity materials;

- semiconductor materials;

- battery materials;

- advanced alloys;

- aerospace materials;

- defence materials;

- application-specific compounds.

But their role should also extend horizontally across the system.

Research is required in:

- chemical logistics;

- process safety;

- environmental monitoring;

- waste minimisation;

- industrial sensing;

- testing;

- certification;

- process control.

The desired institutional chain is:

science → engineering → prototype → pilot → industrial validation → manufacturing → feedback → further research.

This is the same translation problem that appears elsewhere in India's industrial development.

A scientific discovery has limited industrial significance until somebody can reproduce it.

A promising material has limited economic value until it can be manufactured consistently.

A computational prediction has limited industrial value until it can be physically tested.

A prototype has limited strategic value until it can survive industrial conditions.

The translation system is therefore as important as the discovery system.

AI, super-computing, and quantum computing

The emergence of advanced computational infrastructure gives India an unusual opportunity to strengthen this translation system.

But the three technologies should not be treated as if they were simply three versions of the same thing.

AI can diffuse broadly through industry.

A speciality-chemical company can use AI for process optimisation.

A plant can use it for predictive maintenance.

A logistics provider can use it for route and fleet optimisation.

A manufacturer can use it for quality control.

A laboratory can use it for molecular modelling.

A park can use it for monitoring energy, water and emissions.

The barriers to adoption will vary, but AI is fundamentally a technology that can increasingly be deployed throughout the industrial economy.

Super-computing is different.

High-performance computing infrastructure is expensive and requires specialised expertise.

It therefore makes sense for India to develop publicly supported computational facilities through capable universities and research institutions and allow industry to access them.

Such facilities can support:

- molecular simulation;

- computational chemistry;

- geological modelling;

- catalyst design;

- alloy optimisation;

- battery-material research;

- semiconductor-material research;

- process simulation;

- environmental modelling.

Quantum computing is an even more specialised capability.

Indian universities are beginning to develop quantum-computing ecosystems, and recent developments in quantum-assisted materials research, by SRM University, demonstrate why this could eventually matter to industrial transformation. Andhra Pradesh's recent announcement of an AI-quantum university is another indication that the institutional ecosystem around these technologies is beginning to emerge.

The important question is not whether every industrial company should acquire a quantum computer.

Most should not.

The more sensible model is:

Government

→ supports strategic computational infrastructure.

Universities and research institutions

→ develop expertise and operate advanced facilities.

Industry

→ contributes real industrial problems, data and application requirements.

Publicly supported prototyping and pilot infrastructure

→ converts computational discoveries into physical technologies.

Chemical parks and industrial clusters

→ provide industrial validation and pathways to scale.

This distinction is important because computational discovery can otherwise become another version of India's missing-middle problem.

Suppose a supercomputer or quantum computer identifies a promising molecule or material.

What happens next?

Someone has to:

synthesise it → characterise it → test it → establish its safety → develop a reproducible process → produce it at pilot scale → validate its industrial performance → determine whether it can be manufactured economically.

The computational system is only the beginning.

The real national capability lies in the entire chain:

computation → discovery/invention → synthesis → prototype → pilot → validation → manufacturing.

That is why government-supported prototyping and pilot infrastructure is so important.

Education is infrastructure too

There is another part of this ecosystem that tends to disappear from industrial policy discussions: education.

A molecular economy requires people across the entire skills pyramid.

Its workforce will not consist only of chemical scientists and chemical engineers.

It will require:

- plant operators;

- technicians;

- electricians;

- instrumentation specialists;

- laboratory assistants;

- safety professionals;

- logistics workers;

- maintenance engineers;

- chemists;

- materials scientists;

- process engineers;

- data specialists;

- researchers.

The educational architecture therefore needs to begin much earlier.

Schools and colleges need strong foundations in:

- chemistry;

- physics;

- mathematics;

- biology;

- computing;

- engineering fundamentals;

- environmental science;

- safety.

But formal education should increasingly connect with actual industrial environments.

Chemical parks and advanced industrial clusters can become places where students learn through:

- internships;

- apprenticeships;

- laboratory placements;

- industrial projects;

- process-training programs.

Large parks could ideally provide integrated hostel or residential facilities for apprentices, interns and young researchers.

This is not merely a convenience.

Industrial knowledge is partly tacit.

A student who spends several months observing a process plant, laboratory, control room or materials facility acquires knowledge that is difficult to reproduce in a classroom.

The geography of employment also matters.

One of the attractive features of the proposed architecture is that it can distribute employment across different kinds of regions.

Resource regions can support:

extraction → beneficiation → recovery → basic processing → logistics.

Medium-complexity industrial regions can support:

chemicals → speciality chemicals → functional materials → process engineering.

Advanced industrial clusters can support:

high-purity materials → advanced chemistry → testing → qualification → manufacturing.

The employment system therefore spans both geographies and skill-levels.

It can create opportunities not merely in metropolitan centres but in resource-rich and industrialising regions.

This matters for a country whose industrial transformation cannot sensibly be confined to a handful of existing metropolitan clusters.

The company should be allowed to move

The architecture should also encourage corporate evolution.

A company need not remain forever in the layer or pillar in which it begins.

A logistics company can accumulate engineering knowledge and enter processing.

A chemical company can develop speciality materials.

A materials company can move into advanced manufacturing.

A recycling company can develop proprietary separation chemistry.

A technology company can develop industrial process-control systems.

A startup can begin with a narrow molecular process and eventually become a significant industrial supplier.

Scimplify offers an interesting illustration of this emerging model. Its proposition involves digitally coordinating chemical discovery, development, manufacturing and customers rather than assuming that every stage needs to be contained inside one conventional chemical company.

This is particularly interesting for India because the country does not need every company to become enormous.

It needs many specialised companies capable of connecting to one another.

A distributed industrial system can be more resilient than a small number of vertically integrated giants.

But this does not mean large companies are undesirable.

Large anchor companies can provide:

- capital;

- technology acquisition;

- infrastructure;

- global market access;

- large-scale demand.

The important thing is that the anchor should anchor an ecosystem rather than replace one.

This is perhaps the right way to think about the Andhra Pradesh-Adani opportunity.

The question is not whether a large company should be allowed to build a large titanium operation.

Of course it should, if the project is technically, economically, socially, and environmentally sound.

The question is whether the surrounding national system should remain open enough for:

- other processors;

- other mineral streams;

- other states;

- other companies;

- other materials;

- other technologies

to develop alongside it.

The national objective should be distributed capability, not distributed ownership for its own sake.

From three layers to a national network

The three-layer architecture can now be understood as a network of flows.

Material flow

minerals + biomass + hydrocarbons + recovered materials

→ basic feedstocks

→ intermediates

→ speciality chemicals

→ functional materials

→ advanced materials

→ manufacturing.

Circular flow

products → collection → separation → recovery → transformation → new feedstocks/materials → manufacturing.

Knowledge flow

research → engineering → pilot → manufacturing → industrial feedback → research.

Logistics flow

resource regions → processing centres → chemical parks → industrial clusters → ports/markets.

Information flow

sensors → data → AI/computation → optimisation → coordination.

Regulatory flow

standards → monitoring → compliance → accident/environmental data → institutional learning.

Capital flow

research → prototype → pilot → scale-up → commercial investment.

These flows should intersect, but they do not need to be controlled by one institution or one company.

That is the architecture's central characteristic.

It is distributed but connected.

What should the BHAVYA Rasayan parks ultimately become?

This brings us back to the government's immediate initiative.

The three BHAVYA Rasayan parks could become much more than three large chemical estates.

They could become India's first major experiments in building the molecular-transformation middle.

Their success should therefore be judged not only by:

- investment attracted;

- production created;

- exports generated;

- jobs announced.

Those numbers matter.

But additional questions are more revealing.

Did the park create new process capabilities?

Did it generate new companies?

Did it attract research institutions?

Did it create pilot facilities?

Did it reduce dependence on imported intermediates?

Did it create new materials?

Did it develop specialised chemical logistics?

Did it become safer and more resource-efficient over time?

Did it connect to resource regions?

Did it create industrial symbiosis?

Did it generate skilled employment?

Did it produce technologies that could be replicated elsewhere?

If these questions become part of the evaluation framework, the parks can become learning institutions as well as industrial infrastructure.

And there is no reason for the three initial parks to be identical.

One might develop particular strengths in speciality chemicals.

Another might specialise in materials.

Another might build stronger links to a particular resource base or downstream industrial cluster.

Their experiences could inform subsequent parks.

This is how a national network could grow organically rather than being imposed all at once.

From a chemical sector to an industrial operating system

Seen this way, India's chemical ambition is no longer primarily about chemistry.

It is about coordination of transformation.

The country needs the ability to move continuously from:

resource → molecule → material → component → product

and increasingly:

product → recovered material → molecule/material → new product.

That requires more than factories.

It requires:

physical infrastructure

scientific institutions

engineering capability

pilot and prototyping systems

specialised logistics

safety architecture

regulatory intelligence

education & skills

computational infrastructure

entrepreneurial companies

government coordination.

This is why the chemical industry is such an interesting case for a broader development philosophy.

The government should not determine every industrial outcome.

It should not choose every winner.

It should not own every transformation stage.

But it must take responsibility for building the conditions of capability accumulation.

That is fundamentally different from simply incentivising investment.

Let the numbers follow capability

India's $1 trillion chemical ambition is useful.

So are targets for exports, investment, production, and employment.

But these should be understood as consequences of an industrial capability architecture.

If India builds reliable resource-processing systems, sophisticated chemical parks, advanced materials capability, specialised logistics, safe industrial environments, research institutions, pilot infrastructure, skilled workers and coordinated value chains, then production can expand.

If those capabilities deepen, exports can expand.

If exports expand, investment will follow.

If industrial ecosystems spread geographically, employment will follow.

The direction of causality matters.

A headline number cannot create an ecosystem.

An ecosystem can create the headline number.

That is perhaps the most important distinction between an industry-promotion strategy and a capability-building strategy.

India should therefore resist the temptation to judge its molecular economy solely by how many dollars of chemicals it produces.

It should ask instead:

How much knowledge can we retain?

How many processes can we master?

How many materials can we produce?

How many resource streams can we transform?

How much waste can we turn back into feedstock?

How many companies can participate?

How many regions can develop industrial depth?

How much strategic dependence can we eliminate?

How safely and sustainably can we transform matter?

These are slower metrics.

They are also much harder to fake.

Conclusion: Build the Middle. Coordinate the System. Let the Numbers Follow.

India does not lack the ingredients of industrial ambition.

It has resources.

It has scientists.

It has engineers.

It has entrepreneurs.

It has capital.

It has a large market.

It has an expanding research infrastructure.

What it repeatedly lacks are the connecting systems that allow one capability to become another.

That is the missing middle.

In the molecular economy, the missing middle lies between:

resource and material,

science and engineering,

prototype and factory,

factory and industrial cluster,

waste and resource.

Building it requires a different understanding of the state's role.

Government should not replace private enterprise.

But neither should it simply wait for companies to tell it what infrastructure they need.

It should anticipate systemic requirements.

It should map future bottlenecks.

It should build common infrastructure.

It should support pilot plants and testing systems.

It should connect universities to industry.

It should ensure that advanced computing becomes an industrial capability rather than an isolated technological achievement.

It should build regulatory and safety intelligence.

It should coordinate logistics.

It should ensure that industrial parks have adequate water, energy, gases, waste systems and environmental safeguards.

It should preserve competition and avoid unnecessary concentration.

And it should allow companies to move through the architecture as their capabilities grow.

The resulting system should be:

vertically coordinated,

horizontally competitive,

geographically distributed,

scientifically supported,

circular,

safe,

environmentally sustainable,

and dynamically evolving.

Its primary resource base will remain India's minerals, biomass, and hydrocarbons.

But its resource base will increasingly include the enormous stock of materials already circulating through the Indian economy.

Its first transformation layer will remain close to resources and recovery streams.

Its middle layer will increasingly be built around sophisticated chemical and materials parks.

Its advanced layer will connect those capabilities to semiconductors, batteries, pharmaceuticals, defence, aerospace and other demanding industries.

And all three will be connected by research, logistics, regulation, computing, education, and digital coordination.

The ultimate objective, therefore, should not be to make every company vertically integrated.

Nor should it be to make every region self-sufficient.

It should be to make India's distributed capabilities work together.

It would not be a single industry.

It would be a national system of transformation.

And perhaps that is the deeper lesson of India's $1 trillion chemical ambition.

The question is not simply whether India can manufacture enough chemicals to reach a trillion dollars.

The question is whether India can build the industrial civilisation capable of continuously transforming its resources, knowledge, and accumulated materials into greater value.

The pathway runs both ways:

resources → molecules → materials → manufacturing → products

and increasingly:

products and waste → recovery → molecules/materials → new manufacturing.

Between these pathways lies the infrastructure and institutional architecture that India has too often underbuilt.

The missing middle is therefore not merely an intermediate industrial sector.

It is where capability becomes cumulative.

Build that middle.

Coordinate the system.

Let companies move.

Let knowledge circulate.

Let resources remain distributed.

Let transformation deepen.

And let the numbers follow.