The Missing Pillar of Viksit Bharat: Why India’s Development Transition Needs a Water Strategy

India’s development narrative today rests heavily on two pillars: AI-fication and greenification. From green steel and green cement to AI-enabled manufacturing, data centres, and smart infrastructure, the vision of Viksit Bharat is being articulated as a technologically sophisticated and clean-energy powered future.

What is conspicuously absent from this discourse is a third, equally fundamental input: water.

This omission is not rhetorical—it is structural. Without explicit planning for industrial and urban water security, India risks building an AI- and energy-rich economy constrained by a far more basic bottleneck.

Water: The Silent Binding Constraint of the New Economy

Most of the sectors central to India’s green and AI transition are intrinsically water-intensive:

Steel and cement (cooling, dust suppression, processing)

Oil refining and petrochemicals

Chemicals and fertilizers

Infrastructure and real estate

Data centres (cooling, directly or indirectly)

Emerging sectors such as green hydrogen, batteries, and semiconductors

Even as energy transitions from fossil to renewable and processes become digitally optimised, water demand does not disappear. In several cases, it increases.

The current assumption—implicit in most policy conversations—is that water availability is either given or can be managed locally. That assumption is increasingly untenable in a climate-volatile, industrially expanding India.

Used-Water Refining and Recycling: From “Best Practice” to Core Infrastructure

One immediate policy response could and should be to treat water recycling as industrial infrastructure, not environmental virtue.

Technologically, refining used industrial water is far less complex than refining crude oil. 

The constraints are institutional:

capital expenditure,

weak incentives,

and uneven enforcement.

For large water-guzzling industries, near-zero liquid discharge must move from optional compliance to mandatory design logic, especially for new projects. Existing facilities should be placed on phased but time-bound transition paths.

Critically, treated waste-water should be:

tradable within industrial clusters,

counted against fresh water extraction permits,

and factored into ESG ratings, credit terms, and insurance risk.

This framework reframes recycling not as compliance cost, but as supply security.

Current Water Storage Hierarchy in India

Water storage in India is organised primarily around hydropower generation, which represents the most robust and long-duration form of public water storage in the country. Large dams and pumped storage projects are designed to capture monsoon inflows and regulate water release across seasons and years, with the principal objective of stabilising electricity generation and grid demand. While such reservoirs often provide secondary benefits such as flood moderation or incidental downstream water availability, their storage and release logic is governed overwhelmingly by energy considerations rather than urban or industrial water supply. Such water needs, where accommodated, remain ancillary to the core function of these assets.

A second major pillar of water storage is irrigation infrastructure, built around dam-adjacent reservoirs, canal systems, barrages, and command-area tanks. These systems are explicitly designed to store monsoon water and release it in alignment with agricultural cycles, enabling cropping across dry seasons. Irrigation reservoirs often possess substantial seasonal storage capacity and constitute the backbone of India’s food security framework. However, the water stored within them is not managed primarily for urban or industrial water supply, and is subject to availability after agricultural demand is met.

Thirdly, pisciculture ponds represent a secondary layer of water storage tied to fishery and livelihood generation. These micro-reservoirs were earlier created as part of irrigation or hydropower projects and subsequently utilised for fish production and allied economic activity. Lately, thousands of more such ponds ('sarovars') have been constructed, as part of 75 years of Indian Independence celebration, primarily for fishery and rural livelihood generation. As such, they cannot be relied upon as stable or dedicated sources for urban or industrial water supply.

Finally, household piped tapwater relies on a far thinner storage layer. Under state water boards and programmes such as the Jal Jeevan Mission, India has developed an extensive network of local service reservoirs, clear water tanks, overhead tanks, and pumping stations that collect water from nearby rivers, canals, groundwater sources, or watersheds and distribute it through pipelines to households. These facilities are critical for last-mile delivery and daily pressure management, but they function as short-duration buffers—typically holding only hours or days of supply. They do not provide large, reservoir-like storage capable of insulating household water supply from seasonal variability, prolonged dry spells, or upstream disruptions.

Taken together, this structure reveals a clear hierarchy: the longest and most secure storage is reserved for energy, agriculture, and rural livelihoods; while other equally indispensable uses—urban and industrial water supplies—operate with the least strategic buffering.

Beyond Energy and Agriculture: Water Storage for Cities and Industries

What is clearly missing in India's water security thinking is explicit planning for urban and industrial water buffering.

Many existing reservoirs, ponds, and sarovars remain under-utilised outside their primary function or season. Repurposing them as multi-use water assets—with clear priority rules—can avoid fresh land acquisition battles, while dramatically improving water resilience.

In effect, India needs industrial-scale water reserves, analogous to strategic petroleum reserves, planned at the level of:

industrial corridors,

data centre zones,

and urban clusters.

Monsoon Water as a National Asset, Not a Seasonal Nuisance

India does not suffer from a lack of rainfall. It suffers from a failure to capture, store, and redeploy water across seasons.

Every monsoon, rivers across India swell to dangerous levels, causing floods and destruction—only for the same regions to face water stress months later. This is not a natural paradox; it is a policy failure.

A couple of years back, I recall, Home Minister Amit Shah suggested constructing lakes ('sarovars') along river-banks to divert excess floodwater. While framed as a flood-control measure, the idea has far wider relevance.

I suggest a modified, tiered model:-

- Along major rivers, a limited number of strategically located lakes can divert and store excess monsoon flows.

- Along medium-sized rivers, a combination of smaller lakes and a denser network of ponds can absorb seasonal surges without large-scale disruption.

- Along minor rivers, streams, and in terrain-constrained regions (including hill states), storage should rely primarily on ponds and small reservoirs rather than large lakes.

Storage capacity should be calibrated to river size, terrain, and seasonal flow patterns, rather than applying a one-size-fits-all model.

Together, these distributed storage assets can transform monsoon excess into usable water reserves, ensuring availability for industrial and urban use during non-monsoon and lean periods.

Revenue, Not Welfare: The Political Economy Breakthrough

The most important reframing should be this:

urban and industrial water storage is revenue-generating infrastructure. If electricity tariffs make pumped hydro viable and fish markets justify pisciculture ponds, water sales can justify storage for cities and industries.

For states:

- long-term water supply contracts create predictable non-tax revenue,

- water-secure regions become more attractive to investment.

For panchayats and local bodies:

- lease income from ponds and reservoirs,

- employment in maintenance and monitoring,

- direct fiscal stake in protecting water assets.

Once water is treated as a metered, priced resource (within ecological safeguards), land acquisition and local co-ownership can become far more feasible.

A Three-Pillar Transition Framework

India’s development transition drivers must now be articulated explicitly as:

1. Clean and reliable energy

2. AI-driven productivity and optimisation

3. Assured, circular, and buffered water supply

Without the third, the first two will increasingly compete with agriculture, cities, and each other.

Water stress is no longer just an environmental issue. It is an industrial competitiveness issue, a fiscal issue, and an urban governance issue.

Conclusion: Planning Before Scarcity

India still has a window to act proactively. The country can choose to treat water shortages as a distant, future crisis—or design water security as productive infrastructure today.

If India can build reservoirs to store electrons, irrigate farms, and raise fish, it can certainly build—and monetise—reservoirs to secure water for cities and industries.

The green and AI transition will succeed not merely on code and electrons, but on something far more elemental: water — captured at the right time, stored in a scientific manner, and allocated with economic foresight.