Water Forever
Jasveer Singh+91 94210 58160
Talk to us
Digital Water Infrastructure

Water moves as one connected system. Our information does not.

Reservoirs, pipes, pumps, fields and factories share the same water cycle — but rarely the same information. We are building the intelligence layer that connects them.

We help operators measure, monitor and manage water systems — with dashboards, remote controls and automation, from a single site to connected networks.

Water Forever is an initiative led by Waterfall Automation Pvt. Ltd., the technology team developing Waterfall Grid.

THE WATER FOREVER VISIONOne water system. Many decisions.
One water system. Many decisions.The physical system is connected. Our understanding should be too.
01 · MEASURE

Know what is happening.

Read flow, levels, pump state and consumption from the infrastructure you already operate.

02 · UNDERSTAND

See what it means.

Find waste, stress, unusual patterns and opportunities — in one operational picture.

03 · ACT

Make water manageable.

Coordinate people, schedules, pumps and valves; verify the result and expand intelligently.

The idea

Three layers, one grid

Physical water systems stay as they are. We add a digital foundation that connects them, and an intelligence layer that turns the data into decisions.

How the layers fit
Water intelligenceUnderstand · Predict · Optimise · Decide · Act3Digital foundationSensors · Meters · Controls · Connectivity · Data2Physical water systemsReservoirs · Pipes · Pumps · Fields · Buildings · Factories1
The three layers
Why now

Water can finally be understood as a whole.

Wider connectivity, better sensing, satellite observations and computational tools now make it possible to understand water systems together, at a time of growing uncertainty around availability and demand.

From field to grid

It began with one irrigation problem.

How practical work with farmers became a vision for connected water intelligence.

Read our story →
Four application families

One platform. Different water systems.

The challenges vary. The foundation remains the same: measurement, operational intelligence, appropriate control and the ability to verify improvements.

Proof that begins in the field

Waterfall Automation's practical field sensing and control systems form the foundation for the wider Water Forever vision. We build on measured field learning, not only future architecture.

42% average water saving

Independent measurement across six sites and seven crops, under the UNIDO/BEE FLCTD programme.

Read more →

Rajegaon, Jalna

A village water-distribution system with remote monitoring and operation.

See it →

Eleven more villages

Surveyed with interest in expanding connected village water systems.

Make your water systems work smarter.

From measurement and monitoring to automation and intelligence, find the right starting point for your water infrastructure.

Vision

One watershed. One connected system.

Digital Water Infrastructure lets physical water systems become measurable, connected and intelligent. It is built open, so many organisations can contribute.

VISION ILLUSTRATIONThe world already runs on water networks
The world already runs on water networksThe information layer is the missing connection.
Principles

Open participation

Anyone can contribute and innovate.

Interoperable

Works across devices and systems. No lock-in.

Built through evidence

Grounded in data and field practice.

Shared learning

Every deployment teaches the ecosystem.

Built for generations

Designed for long-term resilience.

Waterfall Grid

The intelligence layer for water.

Water data in. Situational awareness, operational decisions and verifiable action out. Start by connecting the assets you already have.

Connect → Identify → Understand → Control → Verify.

FROM INFORMATION TO ACTION CONNECTED INPUTSUSEFUL OUTPUTS ● Flow + levels● Pumps + valves● Existing SCADA● Maps + satellite● Operational records ✓ Live visibility✓ Anomaly alerts✓ Better planning✓ Safe automation✓ Verified impact WATERFALLGRIDIntelligence layer MEASURE → UNDERSTAND → ACT → VERIFY
Integrates data from existing infrastructure with new sensing only where useful.
Imagine a water tank that frequently overflows after dark.

A level reading reveals the pattern. The grid relates it to pump runtime and demand, alerts the operator, and — where authorised — changes pump operation. The next day’s data confirms whether overflow reduced. The same sequence can begin with a village, a construction site, or an industrial plant.

Built on field operations. Waterfall Automation's SICCA sensing, connectivity and pump/valve automation provide a practical engineering foundation. Waterfall Grid extends this foundation towards a shared intelligence layer across different water environments.

From data to impact

Understand

What is happening?

Predict

What is likely next?

Optimise

What should change?

Decide

What should we do?

Act

Connect the decision to the physical system

One platform · Four application families
Applications

One platform. Four kinds of water systems.

Start with the infrastructure you operate. Each category opens into individual applications and practical examples, without losing the larger connected picture.

Different water systems. One common intelligence foundation.

Measurement, monitoring, operational understanding, appropriate automation and verified outcomes—adapted to each environment.

Explore Waterfall Grid ↗
6.1 · Applications

Built Environment

Connect water across the places we build.

From temporary construction services to permanent building systems and landscaped spaces, make water operations easier to measure, manage and improve.

Illustration of Built Environment water systems
Explore applications

Choose the water challenge closest to yours.

One technology foundation, adapted to your system.

Different infrastructure. Common principles: measure what matters, understand operations, enable appropriate control and verify improvements.

See how Waterfall Grid works
6.2 · Applications

Manufacturing & Industry

Understand water across your entire operation.

Make water entering, moving through and leaving a facility visible. Connect metering, utilities, operations and reporting through a practical water-management foundation.

Illustration of Manufacturing & Industry water systems
Explore applications

Start with a practical water problem.

One technology foundation, adapted to your system.

Different infrastructure. Common principles: measure what matters, understand operations, enable appropriate control and verify improvements.

See how Waterfall Grid works
6.3 · Applications

Agriculture & Irrigation

Deliver the right water, when and where it is needed.

Connect field sensing, water delivery and pump/valve automation with practical operational decisions—building on Waterfall Automation’s agricultural field experience.

Illustration of Agriculture & Irrigation water systems
Explore applications

Start with a practical water problem.

One technology foundation, adapted to your system.

Different infrastructure. Common principles: measure what matters, understand operations, enable appropriate control and verify improvements.

See how Waterfall Grid works
6.4 · Applications

Public Water Systems

Connect water resources, infrastructure and decisions.

Bring visibility and coordinated management to distribution networks, water sources and regional planning—starting with existing assets and the decisions operators need to make.

Illustration of Public Water Systems water systems
Explore applications

Choose the water challenge closest to yours.

One technology foundation, adapted to your system.

Different infrastructure. Common principles: measure what matters, understand operations, enable appropriate control and verify improvements.

See how Waterfall Grid works
6.1.1 · Built Environment

The supervisor’s time is the hidden cost of site water.

Curing, drinking and worker water run as three separate systems on one site. One connected layer lets a supervisor see and operate them without climbing every floor.

CONSTRUCTION OPERATIONSFloor-by-floor water operations
Floor-by-floor water operationsCoordinate pumps, pressure, curing and temporary supply.
One site. Three water systems.

Construction, drinking and worker-domestic water each have different priorities. A unified operations view reduces manual rounds and helps protect pressure for the floors that need it.

Today
  • A supervisor repeatedly inspects and operates pumps, floors, valves and pressure by hand.
  • Curing water competes with other site activity; pressure is uneven where curing is under way.
  • Tanker orders are placed without a clear view of source and storage levels.
With a connected layer
  • Floor-wise remote isolation and schedules for curing water.
  • Source and storage visibility, so tanker orders follow real levels.
  • Monitored tap schedules and abnormal-flow cut-off for worker water.
Who gains
  • Site supervisors
  • Site engineers
  • Project directors
  • Camp managers
  • Procurement
The numbers
Try the arithmetic

Try an example

Actual results depend on site conditions and baseline measurement.

Full construction water operations dashboard, preserving original aspect ratio
OPERATIONAL VIEW

See every floor in one operational view.

This full dashboard image is displayed without cropping or stretching. Supervisors can compare floors, pumps, valve status and water operations.

Illustrative interface concept from the construction-use-case presentation.

Select the image for a closer look. Schematic dashboard concept; not connected to a construction site.

See it working

Try the control

Try it: remote curing valve controlSimulation
  • Floor 1Open
  • Floor 2Open
  • Floor 3Open
  • Floor 4Open
  • Floor 5Open
  • Floor 6Open
  • Floor 7Open
  • Floor 8Open
  1. Switch a valve to see the audit log.
Go deeper: the value
ValueHow
Less climbing and manual checkingRemote valve and pump control by floor and schedule
Fewer avoidable tanker orders and overflowTank-level visibility and alerts
Monitored tap useSchedules and abnormal-flow cut-off
Faster fault findingZone flow, pressure and runtime history
Auditable operationsTime-stamped actions and reports

Site water is the smallest, fastest-moving Waterfall Grid node: the same measure → understand → control loop that scales to a village or a district.

Discuss a water challenge at your site.

6.1.2 · Built Environment

Design metering into the building. Don’t just add more meters.

Plan the metering topology at MEP stage, so the building has a digital water layer from day one and no duplicated meter points.

BUILT ENVIRONMENTDesign intelligence into the building
Design intelligence into the buildingMeter topology and useful operating visibility.
Better architecture, not more meters.

The useful metering points are decided from source, storage, branches, users and facilities — ideally while the MEP design is still flexible.

Today
  • Meters are added after the plumbing is fixed, without studying the topology.
  • Duplicated points raise capex without adding visibility.
  • Residents, operators and developers each lack a clear view of consumption.
With a connected layer
  • Metering points designed with the water topology at MEP stage.
  • Potentially fewer unnecessary meter points, where the design allows.
  • Resident, building-operator and developer dashboards, by role.
Who gains
  • Residents
  • Building managers
  • Developers
  • MEP consultants
The numbers
Try the arithmetic

Try an example

Actual results depend on site conditions and baseline measurement.

See it working

Water intelligence for every stakeholder

ILLUSTRATIVE INTERFACE · SAMPLE DATA

Building water operations

DEMONSTRATION
My flat · today620litres
Month to date11.8kL
Continuous-flow alert6L/hour · investigate
Where my water went
Domestic usage540 L
Other / unclassified80 L

Illustrative end-use classification requires supporting meters or analytics.

Actionable notification

⚠ Possible continuous flow detected between 01:00 and 05:00.

View usage • Investigate leakage • Request maintenance

Sample values show the type of decisions each user could make; they are not readings from a customer building.

Go deeper: the value
ValueHow
Better capex designMetering points planned against the topology
Billing and consumption visibilityFlat- and common-area level data
Anomalous-use alertsContinuous flow monitoring
Lifecycle reportingStored consumption history
Differentiated propertyDigital water layer from day one

A building is a small, well-instrumented water system that feeds the same grid as districts and reservoirs.

Plan water intelligence into your building.

6.1.3 · Built Environment

Premium spaces cannot depend on manual routines.

Irrigation, pumps, lighting and water features run as one controlled system, so a landscape stays healthy and the property experience stays premium.

LANDSCAPE OPERATIONSEvery landscape has an operating system
Every landscape has an operating systemIrrigation and outdoor operations should work together.
The experience depends on the operations.

Automated irrigation, fountains, lighting and pump routines can protect landscape quality without constant manual attention.

Today
  • Over- and under-watering; dry patches beside waterlogged ones.
  • Lighting and pumps depend on staff who must be present at the right time.
  • Pumps can run without real-time protection until a failure is noticed.
With a connected layer
  • Timer-based operation by zone, with selectable days, start times and durations.
  • Short, scheduled irrigation cycles by zone.
  • Pump protection and rotation; scheduled outdoor lighting.
  • Water features and fountains on automated schedules.
Who gains
  • Facility managers
  • Developers
  • Residents and visitors
  • Maintenance teams
The numbers
Try the arithmetic

Try an example

Actual results depend on site conditions and baseline measurement.

See it working

Choose how each landscape zone operates

Try it: remote irrigation valve controlSimulation
Operating mode · example
Timer-based · Lawn A starts at 06:00 for 12 minutes; Podium garden follows at 06:15 for 8 minutes.
Schedules can be set by day, start time, runtime and zone. Sensor rules and manual overrides can be layered where required.
  • Lawn AOpen
  • Lawn BOpen
  • Podium gardenOpen
  • Avenue treesOpen
  • Fountain pumpOpen
  • Lighting circuitOpen
  1. Switch a valve to see the audit log.
Go deeper: the value
ValueHow
Healthier landscapeConsistent, scheduled irrigation by zone
Staff time reducedAutomated schedules and alerts
Pump protectionReal-time monitoring and rotation
Premium property experienceLighting and water features under control
Water useMeasured against a baseline

Landscape control extends the grid into outdoor assets that are normally invisible to water reporting.

Make your landscape water operations smarter.

6.2.1 · Manufacturing & Industry

Know where every litre goes inside the factory.

Measure water at the boundary and at branch points, understand source-to-use flows, control pumps and valves where it is safe to do so, and keep auditable records, in any manufacturing sector.

WATER BALANCE · SCHEMATIC PLANT WATER FLOWMeasure in • understand across • account out INPUTSMunicipalBore / reuse METERINGFlow · level · energy PROCESSCOOLINGUTILITIES Usage by sectionMake-up / recirculateWashing / domestic RECYCLE · TREAT · DISCHARGEAuditable outflows and return loops WATERFALL GRIDWater balance • exceptionsAlerts • reports • safe controls
A single view of source, usage, reuse and outflow — adaptable to different manufacturing processes.
Account for every direction of flow.

Start at the incoming boundaries. Follow major branches, process consumption, cooling, reuse and outflows to find where measurement and control matter most.

Today
  • Readings are taken by hand on rounds.
  • Section-wise consumption is unclear until month-end.
  • Allocation overruns and abnormal flow are caught late.
With a connected layer
  • Accurate measurement at the boundary and at branch and usage points.
  • Section-wise and process-wise consumption.
  • Daily or shift allocation with auto cut-off where safe.
Who gains
  • Plant operations
  • Utility managers
  • EHS and sustainability
  • Maintenance
  • Leadership
The numbers
Try the arithmetic

Try an example

Actual results depend on site conditions and baseline measurement.

See it working

Know how much water every section uses

ILLUSTRATIVE INTERFACE · SAMPLE DATA

Plant water accountability · daily view

DEMONSTRATION
Fresh water entering120kL / day
Process & utility usage120kL / day · allocated
Internal water recovered18kL / day · reported separately
Discharge / return32kL / day
Where fresh water is allocated kL/day
Section A · processing35 kL 29%
Section B · processing28 kL 23%
Cooling utilities40 kL 33%
Canteen & domestic7 kL 6%
Other utilities10 kL 8%
All measured sections120 kL/day
Monthly ESG / water-accountability summary
Fresh water withdrawal3,600 kL
Recorded discharge960 kL
Internal recovery / reuse540 kL
Net difference, for reconciliation2,640 kL
Reporting requires meter boundary definitions, verified discharge and reuse flows, and production-normalized intensity metrics.
This is a thirty-day example. Reuse is an internal flow and is not added to fresh-water withdrawals.
Daily / shift / monthly reportsSection-wise allocationWater balance reconciliationESG data readiness

Illustrative dataset for interface demonstration only; not measured performance of any industrial client.

Go deeper: the value
ValueHow
Operator timeFewer manual rounds
Allocation controlQuotas, schedules, auto cut-off
Exception handlingAbnormal-flow detection and alerts
AuditabilityTime-stamped logs and reports
Pump energyWhere operating conditions allow

A factory is a private water network that also draws on a public source. Measured here, it joins the grid at the same boundary as the village and the city.

Bring clarity to your plant water balance.

6.3.1 · Agriculture & Irrigation

Independently verified: 42% average water saving in the field.

Crop-specific irrigation scheduling, less manual attendance and less unnecessary pumping, verified by a UNIDO-supported measurement and verification study.

PRECISION IRRIGATION · SCHEMATIC CROP NEEDSSoil moisture · weather · stage PUMP + VALVE CONTROLIrrigate by requirement Sensing at multiple root-zone depths
Crop conditions guide pump and valve decisions — the field layer that began the journey.
Independent evidence from the field.

The UNIDO-supported evaluation across agricultural demonstrations provides measured savings evidence for the underlying sensing and automation approach.

Today
  • Irrigation by habit rather than crop need.
  • Manual attendance at the pump, day and night.
  • Unnecessary pumping wastes water and energy.
With a connected layer
  • Crop-specific irrigation scheduling.
  • Automated pump and valve control.
  • Soil and crop condition monitoring.
Who gains
  • Farmers
  • Farm managers
  • Programme funders
  • Researchers
The numbers

Explore the numbers

42%Average water saving
1,081 kLSaved per crop-cycle per acre
108 kWhEnergy saved per crop-cycle per acre
85 kgCO₂ reduced per crop-cycle per acre

Water saving by crop

Marigold
19%
Capsicum
51%
Drumstick
32%
Geranium
30%
Pomegranate
56%
Sugarcane
57%
Grape
20%

Six field locations, seven crop demonstrations. Independent measurement and verification report, December 2022. Yield improvements of 13%–32% were reported for selected crops. Calculated with an emission factor of 0.79 kg CO₂/kWh for that period.

UNIDOGEFBEECIIFLCTD
See it working

See which plot is irrigating — and what comes next

ILLUSTRATIVE INTERFACE · SAMPLE DATA

SICCA · Farm operations

DEMONSTRATION
Main pumpON14.8 kW · operating
Active irrigationPlot 03Turmeric · Zone C
Delivered this cycle12.4kL of planned 20 kL
Irrigation sequence
RUNNINGPlot 03Turmeric · Zone C · 4.2 acres62%
NEXTPlot 04Banana · Zone D06:45
DONEPlot 02Pomegranate · Zone B05:55
DONEPlot 01Turmeric · Zone A05:10
Currently irrigating
ValveC · Open
Flow rate16.2 m³/hour
Control ruleVolume target
Time remaining28 min
Next actionClose C → Open D

Illustrative SICCA-style operational interface, not live readings from a customer farm.

Go deeper: the value
ValueHow
Water saving (field-verified)Average 42% across seven crop demonstrations
Water per crop cycle1,081 kL saved per acre
Energy saving108 kWh per crop cycle per acre
Emission reduction85 kg CO₂ per crop cycle per acre
Yield13%–32% improvement for selected crops

Fields are where much of the water goes. Linking irrigation to source conditions, through agricultural cluster and withdrawal coordination, is the next step.

Make irrigation decisions easier.

6.4.1 · Public Water Systems

From reservoir to neighbourhood, one operational picture.

Source, treatment, pumping, storage and pipelines are managed in parts. A connected layer can start with existing SCADA and records and add sensors only where gaps remain.

NETWORK OPERATIONS · SCHEMATIC SOURCE TREAT + PUMPFlow · quality · energy STORAGE ZONE NORTHZONE CENTRALZONE SOUTHPressure / leakageAvailabilityDemand / timing INTELLIGENCEExceptionsOperations
An operational view spanning source, treatment, storage and distribution zones.
Start with the network already in place.

Connect existing SCADA, logs and meters first. Add focused sensing and control only where operational visibility is missing.

Today
  • Source, plant, pumping and network data sit in different systems.
  • Operators learn of problems late, after complaints.
  • Planning relies on partial, delayed information.
With a connected layer
  • Integrate existing SCADA and records first.
  • Add targeted sensors only where data gaps remain.
  • Flow, pressure, tank-level and pump views in one place.
Who gains
  • Utility operators
  • Plant managers
  • City leadership
  • Planners
The numbers
Try the arithmetic

Try an example

Actual results depend on site conditions and baseline measurement.

See it working

See supply, storage and distribution together

ILLUSTRATIVE INTERFACE · SAMPLE DATA

City water operations

DEMONSTRATION
Source availability68% of selected source capacity
Water treated today48.2ML
Main ESR tank74% full
SourceReservoir68% availability
→
TreatmentWTP 0148.2 ML today
→
PumpingStation A3 pumps active
→
StorageESR North74% full
→
Distribution4 zonesSchedules active

A common view across existing plant, pumping and distribution information.

Illustrative city-system sample, not readings from a live urban utility.

Go deeper: the value
ValueHow
Source and treatment visibilityIntegrated plant and source data
Flow and pressure visibilityExisting SCADA plus targeted sensors
Faster responseOperational alerts and tracking
Coordinated informationOne shared view across departments
Loss understandingWater-balance baseline first

Urban networks connect upstream to reservoir intelligence and downstream to buildings and industry in the same grid.

Connect water operations and decisions.

6.4.2 · Public Water Systems

A village water scheme that reports back.

Source, pump, pipeline, overhead tank and valves, supervised remotely, with schedules, reporting and alerts.

RAJEGAON · SYSTEM CONCEPT WATER SOURCE PUMP OVERHEAD TANK ZONE 1ZONE 2ZONE 3Schedule / valveSchedule / valveSchedule / valve REMOTE VIEWLevels · pumps · valves
Illustrative operating architecture, not an engineering layout of Rajegaon.
Rajegaon is the starting point.

Field experience in one village helps shape a flexible approach for villages with different source counts, storage arrangements and distances.

Today
  • Operators travel to open and close valves by hand.
  • Distribution is inconsistent between hamlets.
  • Faults are found late, after residents complain.
With a connected layer
  • Remote valve and pump scheduling.
  • Consistent distribution by schedule.
  • Faster fault identification.
Who gains
  • Village operators
  • Gram Panchayat
  • Block and district officers
  • Residents
The numbers
Try the arithmetic

Try an example

Actual results depend on site conditions and baseline measurement.

See it working

Try the control

Try it: remote distribution valve controlSimulation
  • Hamlet 1Open
  • Hamlet 2Open
  • Hamlet 3Open
  • Hamlet 4Open
  • Hamlet 5Open
  1. Switch a valve to see the audit log.
Go deeper: the value
ValueHow
Less operator travelRemote valve control and schedules
Consistent distributionScheduled valve operation
Faster fault identificationAlerts on flow and levels
Administrative oversightDashboards for GP, block and district
Equity and continuity visibilityVillage-by-village comparison

Village schemes are where the grid starts: the first measured, controllable water system that others connect to.

Bring one village scheme and we start from its pump.

6.4.3 · Public Water Systems

Not just the water level. The decision lead time.

Current availability, effective capacity and trends, water movement and environment, then trajectory and preparedness.

RESERVOIR INTELLIGENCEFrom water levels to preparedness
From water levels to preparednessConnect hydrology, observation and operational decisions.
A level is only one signal.

Availability, rainfall, inflows, releases, evaporation and demand together can improve the time available to prepare.

Today
  • Level is reported without effective capacity or trend.
  • Inflow, outflow, rainfall and evaporation sit in separate records.
  • Dependent villages and farms are not linked to the source.
With a connected layer
  • Availability → effective capacity and history → movement and environment → trajectory.
  • State → district → reservoir drill-down.
  • Inflow, outflow, rainfall and satellite layers with provenance and timestamps.
Who gains
  • District administration
  • Reservoir managers
  • Water departments
  • Researchers
Explore a state-wide intelligence view

Maharashtra's reservoir picture, in one place

Explore the map and select a reservoir to view its reported storage example. Inspired by Dr. Manmeet Singh's Maharashtra Reservoir Intelligence research prototype.

WATERFALL GRID · RESERVOIR INTELLIGENCE

Maharashtra · Reservoir storage

RESEARCH DEMO · OCT 2026 SNAPSHOT
Reference reservoirs9selected examples
Average of examples31%simple mean; not state-wide storage
Lowest example9%Ujani
Higher example61%Pench
ARABIAN SEAMumbaiPuneNashikNagpurChhatrapati SambhajinagarSolapurAmravatiUjani: 9% (prototype example)Jayakwadi: 18% (prototype example)Yeldari: 12% (prototype example)Girna: 16% (prototype example)Mula: 29% (prototype example)Bhandardara: 34% (prototype example)Lower Wardha: 45% (prototype example)Totladoh: 58% (prototype example)Pench: 61% (prototype example)
Simplified state outline and indicative marker positions · not a geographic boundary dataset
Major reservoirsStorage · illustrative
SELECTED RESERVOIR

Yeldari

12%storage in reference prototype

Prototype sample value. Actual storage varies with the observation date and measurement methodology.

STORAGE LEVEL Under 20% 20–39% 40–60% Over 60%
From research prototype to operational intelligence

Map-style presentation inspired by Maharashtra Reservoir Intelligence · DSOC AI Research Lab. Displayed percentages are reference examples from the supplied October 2026 screenshot, not a verified live feed. Validate against Maharashtra WRD / CWC before operational use.

Open research dashboard ↗
The numbers
Try the arithmetic

Try an example

Actual results depend on site conditions and baseline measurement.

Go deeper: the value
ValueHow
Decision lead timeTrajectory and scenario views
Context for level readingsEffective capacity and history
Coordinated planningLinked dependent systems
Trust in dataProvenance and timestamp for every layer
Simple coverage arithmeticStorage ÷ net draw

Reservoirs are the upstream node. What they release determines what every village, farm and factory downstream can use.

Understand your water sources before the next decision.

6.4.4 · Public Water Systems

An integrated decision system, not another dashboard.

Water sources, networks, villages, use, balance, reservoirs, climate risk, equity and security, in one district or state view.

DASHBOARD CONCEPT · JALNAJalna: from village networks to district perspective
Jalna: from village networks to district perspectiveDistrict water-intelligence dashboard concept.
The next step after individual connected assets.

Combine village distribution, reservoir observations, asset health and water-use information to support district-level priorities.

Today
  • Each department sees its own slice of the water picture.
  • Stressed assets and regions are hard to identify early.
  • Reporting is compiled by hand from many units.
With a connected layer
  • Identify stressed assets and regions.
  • Prioritise interventions and coordinate agencies.
  • Plan releases and drinking-water availability.
Who gains
  • District administration
  • Water departments
  • ZP and Gram Panchayats
  • Researchers
  • State leadership
The numbers
Try the arithmetic

Try an example

Actual results depend on site conditions and baseline measurement.

See it working

What people see

Sample viewIllustrative Jalna district water intelligence interface concept, not a live district-wide system
Go deeper: the value
ValueHow
Faster identification of stressRisk and balance views
Better prioritisationInsights and action queue
Coordination across agenciesShared data and permissions
Equity visibilityVillage-wise comparison
Reporting effortBaseline compilation hours

District and state systems are the top of the grid: they consume what villages, reservoirs and cities measure.

Bring one district and we start from its data sources.

Our journey

We didn’t start with the vision. We started in the field.

The technology evolved because the problem kept getting bigger. Proof and future ambition are kept separate.

1

Field

One practical irrigation problem

2

Sensing

Measure what plants need

3

Automation

Pumps and valves, remotely

4

Multiple systems

Villages, buildings, industry

5

Digital infrastructure

A shared layer

6

Waterfall Grid

Intelligence across systems

Our Story

From field to grid

How a practical irrigation problem became a vision for connected water intelligence, and the people behind it.

Jalna

From one village to a district

Rajegaon is the working starting point. Mandala Talab is the focus reservoir for the district.

Rural distribution District intelligence
Our story

From field-level water automation to a connected understanding of water.

From a field problem to a shared water vision

We began by helping farmers use water more precisely. Building connected sensing and automation in the field led us to villages, buildings and larger networks — where the same missing connection kept appearing: the infrastructure exists, but its information remains fragmented.

Water Forever represents the bigger mission. Waterfall Grid is the intelligence layer we are building to make water systems more measurable, understandable and manageable across sectors.

Read the full founding story

How it began

Our journey began with a practical challenge: helping farmers irrigate with greater precision. Working in the field taught us that water management was not just a question of pumps, pipes or schedules. It was a question of knowing what was happening, understanding what was needed and acting at the right time. We built sensing, connectivity and automation systems to help make that possible.

The realization

As our work expanded into rural drinking-water systems, buildings, construction environments and larger water networks, a common problem became clear. Water itself is connected: it moves through sources, reservoirs, pumps, storage, distribution systems and users. The information surrounding it rarely moves together. It is scattered across instruments, records, departments, operators and applications.

What we are building

Water Forever grew from the belief that this fragmented information should become a connected, trusted foundation for better water decisions. Waterfall Grid is the platform vision: bringing together measurements, existing operational systems, satellite and environmental intelligence, and relevant records, then turning them into context, insights and action where appropriate. We begin with real infrastructure and expand progressively: one system, one site, one network at a time.

Why now

Water infrastructure has existed for generations. Today, wider connectivity, better sensing, satellite observations and computational tools make it increasingly possible to understand these systems together. At a time of growing uncertainty around water availability and demand, the opportunity to turn fragmented information into timely intelligence matters more than ever.

Waterfall Automation Pvt. Ltd. builds and deploys the technology; Water Forever expresses the long-term mission; Waterfall Grid is the platform being developed towards that mission.

Jalna regional map used in proposed district intelligence dashboard showing Rajegaon and Mandala Talab
FROM ONE VILLAGE TO A DISTRICT

Rajegaon → Jalna

Our field journey now includes a connected village distribution demonstration. Further surveyed villages show how diverse water arrangements can be brought into a common approach, with district intelligence as the next horizon.

From the field

Rajegaon, Jalna district

Connecting village water-distribution components, including pumping, storage and valves, shows how practical monitoring and remote operation can reduce dependence on manual coordination. The next ambition is broader: connect information from villages, reservoirs, distribution networks and water users into a district-level understanding of availability, movement, demand and risk. Rajegaon is the field experience; district intelligence is where we are headed.

Proof that begins in the field
  • Six agricultural demonstration sites across seven crops formed part of an independent CII-Godrej GBC measurement-and-verification exercise under the UNIDO/BEE FLCTD programme.
  • The report documented an average 42% reduction in irrigation water use across the crop demonstrations.
  • Rajegaon provides a separate field example in rural drinking-water distribution; eleven additional interested villages were surveyed for potential expansion.
A NOTE FROM THE FOUNDER
“It's not even the legacy. It's water that needs to remain.”

Working with farmers taught me that water management is not just about pumps or pipes. It is about having the right information, understanding what it means, and acting at the right time.

As we moved from farms to villages and broader infrastructure, one truth became clear: water is connected physically, but information about it is not. Water Forever is our effort to build that missing intelligence — beginning with practical systems today, but working for generations to come.

Jasveer Singh · Founder, Water Forever

Read the complete Founder’s Note
A note from the founder
“Water moves as one connected system. Our information does not.”

When I began working with farmers, my objective was relatively simple: help them use water more efficiently. We developed technology that could measure conditions in the field, understand irrigation requirements and automate the delivery of water. But as our work expanded across farms, villages and larger water systems, I began to recognize something more fundamental. A farmer may not know how much water will be available next month. A village operator may struggle to coordinate pumps, storage and distribution. A city, industry or district administration may have large amounts of data, yet lack a connected understanding of what is happening across its water infrastructure. The problem is not always the absence of infrastructure or information. Very often, it is the absence of intelligence connecting them.

That realization became the foundation of Water Forever. I believe the next major step in water management is to build digital infrastructure that allows existing systems to become measurable, connected, interoperable and increasingly intelligent. Through Waterfall Grid, we are working towards an intelligence layer that can bring together sensors, operational systems, public records, satellite observations, environmental information and human expertise, helping us understand not only how much water we have, but where it is moving, how it is being used, what may happen next and what we can do about it. We are starting with practical problems and real infrastructure because lasting transformation must begin on the ground. But the ambition extends beyond any one product, sector, organization or geography.

Water Forever is ultimately about responsibility across generations. Every generation inherits water systems built and managed by those before it. I believe ours has an opportunity, and a responsibility, to make those systems more intelligent, accountable and resilient for those who will come after us. Technology makes this possible; collaboration makes it meaningful. Commercial sustainability gives us the means to continue building. But the purpose is larger: to help ensure that the water humanity depends upon remains available, understood and responsibly managed for generations to come.

Jasveer Singh
Founder, Water Forever · Founder & CEO, Waterfall Automation Pvt. Ltd.
M.Tech (Electronics), IIT Bombay

“It is not about leaving a legacy. It is about water remaining for those who come after us.”
People behind the work

People Behind the Work

A mission of this scale is built by people working across technology, engineering, science and operations. These profiles introduce the founder and one of the scientific collaborators helping shape the intelligence direction.

Jasveer Singh

Jasveer Singh

Founder, Water Forever · Founder & CEO, Waterfall Automation Pvt. Ltd.

Jasveer Singh is an electronics engineer and entrepreneur with an M.Tech from IIT Bombay. He founded Waterfall Automation after years of working at the intersection of sensing, connectivity, automation and practical water-management challenges.

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His early work focused on precision irrigation and field-level water efficiency through SICCA, later expanding into connected pumping, distribution and infrastructure-management applications. Through Water Forever, he is advancing a longer-term vision for Digital Water Infrastructure: making fragmented water systems measurable, interoperable and more useful to the people responsible for operating them. His approach connects field engineering and water stewardship with a broader platform ambition for Waterfall Grid.

Dr. Manmeet Singh

Dr. Manmeet Singh

Scientific Collaborator · AI & Climate Intelligence

Dr. Manmeet Singh is a climate scientist and artificial intelligence researcher with a Ph.D. in Climate Studies from IIT Bombay. He is an Assistant Professor in the Department of Earth, Environmental, and Atmospheric Sciences at Western Kentucky University and Director of its DSOC AI Laboratory.

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A former scientist at the Indian Institute of Tropical Meteorology, Pune, and a Fulbright-Kalam Fellow who conducted research at the University of Texas at Austin, his work spans Earth system modelling, AI-supported weather prediction, climate and disaster intelligence, and geospatial analysis. His discussions and collaboration around Waterfall Grid contribute a scientific perspective to reservoir intelligence, satellite data, climate context and the longer-term challenge of turning observations into useful water-system decisions.

What the field has taught us
  • Construction water management also consumes supervisory time; remote control can reduce repeated visits to different floors and equipment.
  • Smart building water intelligence begins with good metering and plumbing architecture, not simply the maximum possible meter count.
  • Village water networks differ widely in sources, distances, storage assets and operating constraints; flexible control matters.
  • The value of individual measurements grows when storage, pumping, distribution, demand and context can be understood together.
How we work with partners

Start small, grow intelligently

1

Assess

One problem or system

2

Connect

Relevant assets and data

3

Operate

Monitor, control, learn

4

Expand

More systems and sites

Who can collaborate

Infrastructure owners, developers, manufacturing operators, utilities and district administrations can engage around concrete operational needs. Researchers, data providers, technology partners and investors can contribute to the wider Digital Water Infrastructure mission.

Collaborate

Make your water systems work smarter.

From measurement and monitoring to automation and intelligence, discover how Waterfall Grid can help improve visibility, control and performance across your water infrastructure.

Tell us what you operate, what is difficult today and what you'd like to improve. We'll start from there.

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Jasveer SinghFounder, Water Forever Initiative+91 94210 58160jasveer@wfmail.in

Organizations across our journey

  • UNIDOUNIDO
  • CIICII
  • AIM · NITI AayogAIM · NITI Aayog
  • Startup IndiaStartup India
  • CWPRSCWPRS
  • L&TL&T
  • AIC-IIIT HyderabadAIC-IIIT Hyderabad
  • Deshpande StartupsDeshpande Startups
  • IIM LucknowIIM Lucknow
  • AirtelAirtel
  • Government of MaharashtraGovernment of Maharashtra
  • Global Vikas TrustGlobal Vikas Trust
  • Paani FoundationPaani Foundation
  • StackeraStackera

Organizations featured here relate to different parts of our journey—including programmes, evaluation, projects, institutional support and ecosystem interactions. Their roles are not identical.