Tech Storiess

A city with heavy rainfall can still experience a severe water shortage. A factory with working pipes can run out of water due to upstream contamination. A hospital relying on a single water supplier remains dangerously vulnerable.

Infrastructure alone can no longer guarantee water security. For decades, water planning relied on a simple formula: find a reliable source, build supply capacity, and grow. Driven by rising climate variability, that formula is failing.

The Failure of the Single-Source Belief

Relying on a single river or aquifer treats finite resources as inexhaustible—an assumption contradicted by global data:

  • Declining River Flow: The WMO 2025 Global Water Resources report reveals that global river discharge has fallen to its lowest levels in three decades, with normal flow observed in only 34–38% of river basins.

  • Groundwater Over-Extraction: India’s Central Ground Water Board (CGWB) projects national groundwater extraction to average 247 billion cubic meters annually, rapidly depleting vital underground reserves.

True resilience requires shifting from single-source dependencies to multi-source diversification.

Diversification vs. Duplication

Diversification should not be confused with simple duplication. Having two pumps drawing from the same endangered river, or contracting two separate water truckers drawing from the same watershed, leaves you exposed to the exact same failure point.

A resilient strategy asks a fundamental question: If your primary water source fails during an outage or drought, will your backup fail alongside it?

Strategic Water Mapping & Decentralized AWG

Adopting the design principles of modern electrical grids—which route power across interconnected sources to prevent blackouts—allows water managers to build resilient, multi-tiered utility models:

  1. Strategic Water-Use Mapping: Not all operations require potable purity. Matching water quality directly to its end use (e.g., using reclaimed greywater for cooling towers or landscaping) preserves high-grade drinking water for critical needs.

  2. Mitigating Concentration Risk: Atmospheric Water Generation (AWG) harvests pure drinking water directly from ambient humidity. Rather than replacing regional municipal pipelines, AWG mitigates concentration risk at the point of use—giving commercial campuses, data centers, and hospitals on-site supply independence.

Measuring Exceptional-Day Performance

Digital monitoring can track well depletion, operational leaks, and system health, but only structural diversity allows a system to survive catastrophic disruptions. Modern water infrastructure must ultimately be evaluated not by how many litres it delivers on normal operational days, but by its performance during the exceptional days of crisis and supply failure.

About the Author: Navkaran Singh Bagga is the Founder & CEO of Akvo Atmospheric Water Systems Pvt. Ltd. (akvosphere.com), an Indian manufacturer of atmospheric water generators deployed across 15+ countries.

Original Article: Read the full opinion piece on TechStoriess

Sustainability Karma

When a metropolitan area builds a new water treatment facility to tackle scarcity, water access improves, but electricity consumption surges. When a factory drills deeper borewells, it extracts groundwater at the cost of significantly higher energy use. When an enterprise transitions to green energy, it often fails to calculate the water required for its new operations.

These decisions may seem sound individually, but together they reveal a core flaw in traditional sustainability models: addressing single issues in isolation while ignoring the secondary pressures created by the solutions themselves.

The Interconnected Water-Energy Nexus

Water and energy are not separate discussions—they are deeply intertwined aspects of the same physical system. Electricity powers every stage of the water cycle, from pumping depleted groundwater to treating contamination and transporting supplies across long distances. Conversely, traditional energy generation relies heavily on water for cooling, while hydroelectric power depends on consistent river flows. Shortages in one resource directly compromise the security of the other.

This systemic interdependence is underscored by the International Energy Agency (IEA) in its March 2026 report, Wired for Water: How Electrification Is Transforming Desalination, which notes that 70% of the Indian population lives in areas facing high water stress. Planning water security without integrating energy strategy is no longer viable.

Evaluating Clean-Tech Innovations in Context

Every technological solution brings trade-offs that must be evaluated in real-world environments rather than isolated laboratory settings:

  • Atmospheric Water Generation (AWG): Capturing moisture directly from ambient air reduces reliance on depleting groundwater and eliminates long-distance transport costs. However, because efficiency relies heavily on local temperature and relative humidity, energy metrics must be carefully optimized for local climatic conditions.

  • Desalination & Recycling: Advanced wastewater recycling and desalination reduce freshwater dependence, yet they require careful management of energy inputs and concentrated brine outputs.

True performance cannot be measured by a single isolated metric. A company reporting water savings must also account for the additional electricity consumed to achieve them, establishing a clear net impact per litre supplied.

Measuring Real Net Impact

Achieving sustainable resource management does not require choosing between water security and energy security—it demands unified planning that evaluates both simultaneously. Policy makers, infrastructure developers, and industrial enterprises must look beyond immediate project boundaries to assess how individual resource choices impact local watersheds, regional power grids, and surrounding ecosystems.

On World Sustainability Day, the measure of progress is not the number of initiatives announced, but the precision with which we measure their complete, long-term impact. Genuine innovation ensures that today’s solutions do not inadvertently become tomorrow’s resource crises.

About the Author: Navkaran Singh Bagga is the Founder & CEO of Akvo Atmospheric Water Systems Pvt. Ltd. (akvosphere.com), an Indian manufacturer of atmospheric water generators deployed across 15+ countries.

Original Article: Read the original opinion piece by Navkaran Singh Bagga

The Logical Indian

Access to safe drinking water should not depend on proximity to a pipeline or a groundwater well. Across India, millions face severe water stress where conventional infrastructure is either logistically difficult or impossible to deploy.

To bridge this gap, Kolkata-born entrepreneur Navkaran Singh Bagga spent the past eight years developing Atmospheric Water Generators (AWGs) at AKVO Atmospheric Water Systems—delivering decentralized drinking water directly from ambient atmospheric moisture.

The Science Behind the System

AKVO’s technology relies on a natural condensation process. Ambient air is drawn into the unit, filtered for dust and pollutants, and cooled below its dew point. As moisture condenses into water droplets, it undergoes a rigorous multi-stage purification sequence:

  • Filtration & Disinfection: Sediment filtration, carbon filtration, ultrafiltration, and UV disinfection treat the water before essential minerals are reintroduced.

  • Zero RO Waste: Because condensed atmospheric vapor contains virtually no dissolved salts, reverse osmosis (RO) is not required—eliminating the severe water wastage typical of traditional RO purification systems.

  • Quality Standard: Every unit is tested against India’s IS 10500 drinking-water standards through NABL-accredited laboratories.

Real-World Footprint & Energy Metrics

To date, AKVO has deployed over 2,000 units across 15 countries, generating more than 100 million litres of drinking water without extracting a single drop from the ground.

  • Proven Impact: Deployments range from Hardua Mangarh village in Madhya Pradesh—where an AKVO unit producing 1,000 litres daily spared residents a 4-kilometer walk for water—to Airports Authority of India facilities in Lakshadweep, Border Security Force (BSF) posts, and municipal projects in Gujarat.

  • Efficiency Focus: In warm, humid Indian conditions, AKVO units operate at an energy efficiency of approximately 0.4 kWh per litre.

  • Climate Realism: AWG output depends heavily on local conditions; at 25°C and 60% humidity, production drops to roughly 57% of a unit’s maximum rated capacity. Condensation becomes impractical below 30% relative humidity, which is why AKVO utilizes its Nimbus OS platform to monitor real-time climate data and performance.

Off-Grid Infrastructure & Future Scaling

AKVO is expanding its focus toward solar-powered, off-grid systems designed for island communities, municipal programs, and disaster relief. Recent developments include solar-powered, battery-integrated AKVO units commissioned for a remote island community in the Philippines under government evaluation.

As climate pressures and infrastructure gaps persist, AKVO continues to scale its decentralized model to bring reliable water access to places traditional pipelines cannot reach.

Original Article: Read the full story on The Logical Indian

Ecopreneur: The Times Of India

Atmospheric water generation (AWG) is conceptually straightforward: extracting clean water from the air where it is needed most. However, applying this technology across diverse climates and real-world conditions requires navigating complex thermodynamic and engineering realities. The future of AWG isn’t measured by lab conditions, but by how successfully units operate in practice.

Key Engineering & Operational Pillars

  • Climate-Tailored Design: AWG relies primarily on vapor-compression condensation or desiccant systems. Because performance varies heavily with ambient temperature and humidity, systems must be engineered specifically for local weather patterns and seasonal humidity rather than relying on flat, year-round ratings.

  • The Real Metric — Litres Per Kilowatt-Hour: While air is free, extraction is an energy-intensive process. Because energy consumption rises in low-humidity environments, efficiency is best measured in litres per kilowatt-hour rather than just daily volume.

  • Power Infrastructure Integration: Compressor starting loads and grid stability heavily influence performance, especially in off-grid applications requiring careful balance between renewable sources, battery capacity, and generator loads.

  • Rigorous Water Treatment: Condensed atmospheric moisture must still pass through robust treatment systems—including air filtration, active carbon, UV disinfection, and re-mineralization—to ensure compliance with drinking water standards.

  • The Fleet as a Data System: Modern deployments leverage IoT and operational telemetry to track thermal dynamics, compressor health, and filter status in real time, creating a feedback loop for proactive maintenance and future design improvements.

From Demonstration to Core Infrastructure

Scaling AWG successfully is not about building oversized machines, but ensuring reliability across varying climates, power grids, and operational environments. By combining energy efficiency, climate-specific design, and intelligent monitoring, atmospheric water generation is transforming from a novel concept into a robust, decentralized water supply alternative.

About the Author: Navkaran Singh Bagga is the Founder & CEO of Akvo Atmospheric Water Systems Pvt. Ltd. (akvosphere.com), an Indian manufacturer of atmospheric water generators deployed across 15+ countries.

Original Article: Read the full article on TimesTech

Ecopreneur: The Times Of India

For communities facing severe water stress, conventional infrastructure often requires finding a reliable source, treating it, and transporting it across long distances. AKVO Atmospheric Water Systems offers an alternative model: extracting clean, potable drinking water directly from ambient atmospheric humidity.

AKVO designs, manufactures, and deploys Atmospheric Water Generators (AWGs) built around the concept of decentralization. Independent of rivers, wells, or municipal pipelines, these systems can be seamlessly deployed in remote villages, urban centers, and disaster zones.

Addressing India’s Water Pressure

India faces significant water challenges, with NITI Aayog’s Composite Water Management Index indicating that over 600 million Indians experience high to extreme water stress. Rapid urbanization depletes groundwater reserves while contamination leaves millions without safe drinking water.

AKVO addresses this by combining air intake, condensation, multi-stage filtration, UV purification, and safe storage into a single modular solution. Its patented purification system delivers water that meets or exceeds World Health Organization (WHO) standards.

Key Technical & Environmental Metrics

  • Community Capacity: A single unit produces up to 500 litres per day—enough drinking water for a community of 250 people.

  • Energy Efficiency: Operates at 0.5 kWh per litre, delivering best-in-class power consumption.

  • Renewable Ready: Engineered to run on solar or wind power, drastically lowering operational carbon footprints.

  • Plastic Reduction: Eliminates up to 10,000 single-use plastic bottles annually per unit.

  • Proven Impact: AKVO systems have already provided safe drinking water to over 50,000 people across India.

A Complementary Utility Model

While AWGs are not intended to replace conventional municipal infrastructure, they provide critical supply resilience where pipeline extension is costly, slow, or impractical. By utilizing ambient air, AKVO offers a flexible, independent utility option in the broader water-supply mix.

Looking ahead, AKVO aims to deploy 10,000 units across water-stressed districts in India by 2030, reaching 10 million people while expanding its international footprint.

Original Article: Read the full story on YourStory

Your Story

In India, water scarcity is often associated with drying lakes, falling groundwater levels, and overburdened supply networks. Kolkata-based clean-tech startup AKVO Atmospheric Water Systems is tackling this challenge by extracting fresh drinking water directly from ambient atmospheric moisture.

Founded by Navkaran Singh Bagga, the company has grown from a local initiative into an international business. AKVO has now deployed over 2,000 systems across 15 countries.

Key Highlights & Impact

  • Daily Output: Generates nearly 300,000 litres of clean drinking water every day using advanced atmospheric water generation (AWG) technology.

  • Bootstrapped Success: Built with an initial seed capital of ₹3 crore without taking external venture funding, the company now maintains an annual revenue of ~₹10 crore.

  • Water on Want Model: Beyond direct equipment sales, AKVO operates a flexible pay-per-litre subscription service in India, eliminating heavy upfront CapEx costs for corporate and institutional clients.

  • Ambitious Scale-Up: AKVO aims to expand its daily production capacity to 1,000,000 litres and reach ₹100 crore in annual revenue over the next three years.

“Focus on value rather than valuation. What matters most is whether your solution works on the ground and whether customers are willing to pay for it.” — Navkaran Singh Bagga

Note: This article was translated and adapted from the original Hindi feature published on YourStory.

Original Article in Hindi: YourStory – AKVO Startup Makes Water from Air

Business India

As water scarcity becomes an escalating global concern, Kolkata-based AKVO Atmospheric Water Systems is tackling the crisis by harnessing technology that can extract clean drinking water directly from the air. Founded in 2017 by Navkaran Singh Bagga, the company has emerged as a pioneer in atmospheric water generation (AWG).

AKVO’s rapid expansion and innovative service model were recently featured in Business India.

Key Highlights from the Feature

  • Innovative Technology: AKVO manufactures advanced atmospheric water generators (AWGs) that extract moisture from the ambient air, condensing it into water that is subsequently filtered and treated for drinking.

  • Global Scale & Reach: The company has successfully deployed over 2,500 systems across 15 countries, with approximately 90% of its revenue driven by international exports.

  • Water-as-a-Service (OPEX Model): Moving away from traditional capital-heavy equipment purchases, AKVO is expanding its flexible model—charging commercial and corporate customers on a per-litre basis.

  • Future Expansion: Looking ahead over the next three years, AKVO aims to scale its deployed capacity toward an impressive milestone of one million litres a day, paving the way for organizations and individuals to subscribe to water seamlessly just like standard utilities.

Read More

  • Read the Full Magazine Issue: Check out the complete coverage and edition on Business India.

Eli Podcast

Can you extract drinking water straight out of thin air? Navkaran Singh Bagga has been doing it for nine years as Founder & CEO of AKVO Atmospheric Water Systems (akvosphere.com). Today, AKVO’s atmospheric water generators operate in 16 countries, with roughly 90% of machine sales coming from international markets.

Unlike typical climate tech founders, Bagga doesn’t rely on emotional pitches or sob stories. He views clean technology through a pragmatic lens: if it isn’t economical, the market won’t adopt it.

Key Takeaways from the Interview

  • How It Works: AKVO’s technology mimics natural condensation—using standard refrigeration components (compressors, fans, and coils) to harvest water vapor from atmospheric humidity, followed by multi-stage filtration including activated carbon to ensure safety even in polluted air.

  • The Cost Equation: Producing water from air costs between Rs 2.50 to Rs 5.00 per litre (depending on humidity and electricity rates). Compare that to packaged water served at restaurants for Rs 100 a litre.

  • The Business Model: While retail consumer adoption proved slow, enterprise demand is surging. Through its Water On Want (WOW) model, AKVO installs the machines on-site with zero upfront capital cost for businesses—clients simply pay per litre consumed.

  • No Subsidies Needed: Bagga firmly believes market forces, not government subsidies, dictate whether technology survives. If a solution needs subsidies to make commercial sense, it isn’t ready.

“Green without being economical makes no sense. You can be the world’s greenest solution—if you don’t make commercial sense, nobody cares.” — Navkaran Singh Bagga

Watch the Full Interview

Check out the complete conversation on YouTube or on their website to learn more about decentralized water utilities and climate tech entrepreneurship:

Startup Talky

Atmospheric Water Generation Is Entering a New Era: Building a Future of Water Independence

The global Atmospheric Water Generator (AWG) market is entering a period of significant growth as businesses, governments and communities look for decentralised and sustainable sources of drinking water. The market is projected to grow from approximately $4.36 billion in 2025 to $4.96 billion in 2026, with expectations of reaching $7.92 billion by 2030. Rising water scarcity, demand for off-grid solutions, renewable-energy integration and the need for greater water security are among the key factors driving this growth.

At the centre of this transition is a simple idea: water does not always have to be transported to where it is needed. It can be produced where it is consumed.

Turning Air Into Drinking Water

Akvo Atmospheric Water Systems was founded around this principle of water independence. Founded by Navkaran Singh Bagga, the company uses atmospheric water generation technology to extract moisture from the air and convert it into safe drinking water.

The process is based on a familiar natural phenomenon. When humid air comes into contact with a surface cooled below its dew point, moisture condenses into water. Akvo’s systems replicate this process at scale. Air passes over refrigeration coils, where moisture is condensed and subsequently treated through a multi-stage purification process involving sediment filtration, activated carbon, mineralisation and UV treatment.

The technology extends beyond condensation itself. Akvo’s Nimbus OS IoT platform continuously monitors parameters such as humidity, temperature, water yield and filter life, providing real-time visibility into machines deployed across different geographies.

From Water Scarcity to Water Independence

For Navkaran Singh Bagga, the challenge is not simply that the world lacks water. It is that access to water remains dependent on infrastructure and logistics.

Pipelines do not reach every location. Tankers are expensive and unreliable. Borewells can become depleted or contaminated, while bottled water involves a continuous transportation and packaging infrastructure.

Akvo’s approach is therefore to generate water at the point of consumption, reducing dependence on external water supply systems. This philosophy has become the foundation of the company’s vision of water independence.

Expanding Across Global Markets

Akvo’s systems are now deployed in more than 15 countries, serving a range of markets including India, the Gulf, Southeast Asia and East Africa. Demand has been particularly strong in coastal and island regions where humidity is available but conventional freshwater infrastructure can be limited or expensive.

In India, the company has also developed Water on Want (WoW), a water-as-a-service model in which Akvo installs, owns and operates the water-generation plant at a customer’s site, with customers paying for the water they consume. The model is designed for facilities such as factories, hospitals and campuses.

Engineering for Real-World Conditions

Atmospheric water generation is highly dependent on environmental conditions, particularly humidity and temperature. Akvo’s experience in deploying systems across different climates has therefore shaped its engineering approach.

The company’s machines are designed to operate from approximately 25% relative humidity upward, while performing most efficiently at higher humidity levels. In low-humidity environments, systems can be deliberately oversized to maintain committed water output.

Energy efficiency remains another major focus. Akvo’s current Water Blocks operate at approximately 0.29–0.35 kWh per litre depending on conditions, with continued R&D focused on compressor selection, coil design and intelligent control systems. The company has also developed Akvo Helios, a solar-thermal system designed to combine atmospheric water generation with renewable energy, rooftop solar and rainwater harvesting.

Scaling Water Generation Across Communities

Akvo’s enterprise-first strategy has enabled it to build a significant installed base. The company has more than 2,000 systems deployed, with the installed base generating approximately 300,000 litres of water per day—equivalent to roughly 100 million litres annually.

Rather than initially focusing on household appliances, Akvo concentrated on industrial facilities, government programmes, institutions and hospitality properties, where systems can operate continuously at larger capacities.

One example is a refinery township in Haldia, where Akvo systems have supplied drinking water to around 900 people continuously for six years. For the company, such long-term deployments demonstrate what water independence can mean in practical terms: reliable access without daily dependence on tankers or municipal supply.

From Machines to Water as a Service

The market for atmospheric water generation is also changing. Customers are increasingly looking beyond purchasing equipment and towards guaranteed outcomes.

In India, this shift has accelerated the adoption of Akvo’s Water on Want model, while international markets continue to see a combination of direct capital purchases and distribution partnerships. The focus is increasingly on the cost of water, uptime and reliable supply rather than simply the technology itself.

This represents a broader evolution of AWG—from an emerging technology to a potential infrastructure solution.

The Road Ahead

For atmospheric water generation to become a mainstream source of drinking water, three factors will be critical: lower cost per litre, greater industry credibility and models that make the technology accessible as a service.

Energy efficiency will continue to play a central role, particularly as atmospheric water systems become increasingly integrated with solar energy. At the same time, standards, certifications and transparent performance data will be essential for building trust in the category.

Navkaran’s vision extends beyond individual machines. He sees the future of air-to-water technology in shared infrastructure—systems serving apartment communities, schools, villages, campuses and other groups through decentralised water services.

Over the next three to five years, Akvo’s priorities are centred on expanding its recurring water-as-a-service business, deepening its international presence, improving energy efficiency and building the organisational capabilities required for sustainable growth.

The larger objective remains unchanged: to make reliable drinking water available where people need it, without depending entirely on infrastructure that may not reach them.

Read the Full Interview

This article is based on Navkaran Singh Bagga’s detailed interview with StartupTalky, covering Akvo’s technology, international expansion, challenges, water-as-a-service model and long-term vision.

Read the full interview on StartupTalky

Financial Express

AKVO Founder Explains Why Water Security Is Becoming a Business Imperative

Water is rapidly becoming one of the biggest operational challenges for businesses. With climate change, population growth, and rising industrial demand putting increasing pressure on traditional water sources, organizations are rethinking how they secure reliable access to water.

In an exclusive interaction with FE B2B, Navkaran Singh Bagga, CEO & Founder of AKVO, explains why water security is evolving into essential business infrastructure and how atmospheric water generation (AWG) can help organizations build resilience.

Looking Beyond Bottled Water

Many businesses still rely on bottled water and tanker deliveries, but these solutions come with hidden costs such as logistics, storage, plastic waste, and supply uncertainty. According to Bagga, evaluating water solutions based on long-term cost per litre rather than upfront purchase price reveals the benefits of generating water directly at the point of use.

Measuring Sustainability Through Smart Technology

AKVO’s atmospheric water generators are equipped with real-time monitoring systems that track water production, energy consumption, and water quality. Through an intuitive dashboard, businesses can also measure the number of single-use plastic bottles and tanker deliveries avoided, helping sustainability teams generate measurable ESG reports.

Building Deep-Tech Hardware in India

Reflecting on AKVO’s journey, Bagga says building hardware demands long-term engineering decisions that cannot be easily reversed. He also notes that developing innovative hardware in India often requires building the supporting ecosystem—from supply chains to service networks—creating a stronger foundation for future growth.

The Future of Enterprise Water Security

As water stress increases, large enterprises, hospitals, and technology parks will need to diversify their water sources instead of relying solely on municipal supplies. Bagga believes self-generating water systems will become as common as rooftop solar panels and backup power, helping organizations improve operational continuity while reducing environmental impact.

For businesses planning for the future, water security is no longer just a sustainability initiative—it is becoming a critical part of resilient infrastructure.