Electronic-Grade Chemicals for India’s Semiconductor Fabs: What Comes Next

India’s policy momentum is substantial.

In July 2026, the Government of India said 12 manufacturing projects had been approved under Semicon India Programme 1.0, with cumulative investment above ₹1.64 lakh crore.

The portfolio spans one silicon fab, one silicon-carbide fab with packaging, one GaN Micro LED fab with packaging and nine ATMP/OSAT facilities.

Three packaging facilities — Micron, Kaynes and CG Semi — had begun commercial production, according to the same release.

The most important front-end anchor is Tata Electronics’ planned Dholera fab.

Its fiscal-support agreement states investment of more than ₹91,000 crore and an announced capacity of 50,000 wafer starts per month.

The original approval described 28 nm high-performance compute chips and power-management chips for uses

including EVs, telecom, defence, automotive and consumer electronics.

These are mature-node and power-oriented applications where disciplined wet chemistry, gases and supply systems are still indispensable.

But a responsible market assessment needs a distinction: approved projects are not equivalent to installed, operating material demand.

A 50,000-WSPM plan cannot be converted responsibly into an acid, solvent or gas number without knowing wafer diameter, process flow, number of layers, yield, equipment configuration and recycling.

Until plants ramp, India does not have a published, audited market-size figure for electronic-grade wet chemicals.

Suppliers should build around verified customer programmes and qualification schedules, not a speculative national total.

The global market reveals the scale of the challenge and the shape of the opportunity. SEMI recorded US$73.2 billion in semiconductor-materials revenue in 2025.

Wafer-fabrication materials accounted for US$45.8 billion, while packaging materials were US$27.4 billion.

Taiwan alone consumed US$21.7 billion of semiconductor materials, China US$15.6 billion and South Korea US$11.2 billion.

These are manufacturing ecosystems built over decades around high fab density, local technical service, reclaim operations, advanced analytical capacity and long supplier qualification cycles.

India should not copy the headline numbers into a false comparison.

SEMI does not report India as a separate region in that public release, and its global material totals include silicon, photomasks, targets and packaging inputs alongside chemicals.

The useful inference is narrower: where fabs operate at large and stable scale, material suppliers can justify local purification, blending, distribution, reclaim and engineering support.

India is earlier in that curve, so selective localisation plus trusted global sourcing is more credible than a claim of immediate self-sufficiency.

There is also a meaningful global shift in India’s favour.

SEMI says wet chemicals, lithography-related materials and photoresist ancillaries showed strong double-digit growth in 2025, driven by higher process intensity and tighter lithography requirements.

That does not tell us what India will buy in any given year, but it confirms that materials are becoming more strategically important as manufacturing complexity rises.

The most practical starting point is often the least glamorous: quality systems, safe logistics and local technical service.

Packaging and assembly facilities need controlled materials, reliable documentation, EHS capability and fast problem solving today.

That environment lets a supplier prove traceability, container handling, clean delivery and response discipline before attempting a direct front-end process qualification.

The next step is controlled delivery and purification of selected wet chemicals or gases where there is a named customer need.

A supplier must build analytical capability around the grade it claims to make, rather than simply buying a high-purity precursor and relying on the upstream certificate.

This can involve contamination-controlled filling, clean packaging, qualification samples, retained samples and a documented process for deviations and customer notifications.

Higher-value products such as CMP slurries, photoresist ancillaries and specialised precursors need a deeper co-development model.

They should be treated as application products: laboratory data alone cannot prove that they work across a customer’s tool set and process window.

The sensible commercial order is therefore service, specification, qualification and then scale — not capacity first and customer validation later.

For buyers, the procurement question is not “Who can sell this acid, solvent or gas?” It is “Who can supply this approved material, through this delivery system, with this documented control plan?” A lower landed price can be expensive if a new lot introduces particles, metals, residues or a container compatibility issue that disturbs a tool or forces a line hold.

Begin with the fab or OSAT specification, then make the supplier prove capability against it. The certificate of analysis should name methods and control limits relevant to the application.

The qualification plan should include packaging and distribution, not just a laboratory sample.

It should also define how deviations, change notices, recalls, retained samples and root-cause investigations will work when a problem occurs.

Finally, keep the language precise. Terms such as “semiconductor grade”, “electronic grade” and “ultrapure” are useful only when attached to a controlled specification.

A public catalogue claim is not an approval. The strongest supplier relationship is one

where both sides can show the evidence behind the grade and respond quickly when the process changes.