SCIENCE. INTELLIGENCE. IMPACT.
From early detection to action.
A connected approach to understanding water quality. Explore the ideas that bring science, technology and community action together.
Step inside the interactive labUse the video controls above, or download the MP4 to watch the film.
Pollution can move downstream before communities receive a warning. Yet monitoring is disconnected, information is scattered, and pollution sources are poorly understood.
The Lao Water Quality Innovation Strategy brings fragmented projects and investment under one framework.
A shared data hub and pollution source map connect the information.
Satellites, community testing and river stations detect changes. Modern laboratories and mobile lab trucks bring reliable testing closer to communities.
Pollution forecasts show where threats could travel. Dashboards and mobile alerts inform the public, while a wastewater compliance system helps agencies track corrective action.
Community treatment and local membrane production build lasting protection.
Deploy in 2027. Connect in 2028. Sustain in 2029.
Fourteen practical deliverables. One integrated water quality intelligence system—uniting agencies, development partners and investment around measurable results.
From early detection to action.
THE INTELLIGENCE-TO-ACTION CYCLE
Make a choice. Change a variable. See what happens. Every stage has something to explore.
All demo data, locations and outcomes below are illustrative. These prototypes do not provide live monitoring, validated forecasts or public alerts.
Identify priority contaminants, vulnerable communities, strategic water sources and capability gaps. Stocktake all development partners’ bilateral water-quality support and harmonize projects, agencies and investments under one National Water Quality Innovation Strategy to reduce fragmentation and redundant support.
National priorities, a development partner support stocktake, shared delivery responsibilities and a results-based deployment roadmap. Align bilateral support under the same framework to fill gaps, reduce redundancy and achieve measurable outcomes.
Stocktake development partners’ bilateral support, harmonize projects and reduce redundant investment under one strategy. Deploy from 2027 and sustain collective results through 2029.
Three years of deployment
Strategy accepted with the partner-support stocktake, shared priorities, responsibilities and deployment plan.
Allie Caulfield / Wikimedia Commons · CC BY 2.0 · Resized and cropped for display.
Build a shared picture of potential pollution sources, discharge locations, river connections and communities that could be affected.
Connected, accessible records supporting the entire process.
Mapped mines, factories, agricultural pressures and wastewater outlets.
Explore mining, agriculture, factories and communities across the Mekong.
Real geographic reference · Demonstration source data · Natural Earth
Combine observations from space, river monitoring and community testing to identify changes that need investigation. These complementary approaches flag potential problems for verification.
Explore the Sepon mining area from space.
Archived Sentinel-2 image · Illustrative review zones, not AI detections. Contains modified Copernicus Sentinel data (2025), processed by Element 84. Image source.
Investigate flagged locations, collect samples and establish the type, concentration and extent of contamination. Check suspected activities against permit records.
People, equipment and procedures to confirm what is happening.
Mobile laboratory trucks extend field investigation and testing outreach to communities.
Explore a modern water laboratory, then open the mobile lab truck to see what travels into the field.
Illustrative 3D designs and proposed equipment. Fixed laboratories confirm heavy metals; the mobile lab supports field screening and sample handling. Equipment, fleet size and final engineering remain subject to the agreed scope.
Explore laboratories & mobile lab deployment
Use verified observations and river-flow information to estimate where pollution could travel, when it might arrive and which water intakes or communities could be exposed.
Connect the data hub, monitoring network and AI capability to deliver downstream forecasts and exposure scenarios.
Play a mining-release scenario. Follow the plume through a tributary, into the main river and past downstream water users.
Ready · 20 kg release over 2 hours. Press play or move the timeline.
µg/L · The scale stays fixed while the scenario plays. The drop at 18 km reflects mixing with the larger river.
The model represents downstream advection, longitudinal dispersion and complete mixing at the confluence. It uses steady flows and an initially uncontaminated river. A coarse 200 m grid adds numerical spreading; timing is illustrative, not a precision forecast. It tracks the selected metal as a conservative dissolved tracer: no decay, sorption, settling, resuspension, pH chemistry or uptake into organisms. Different metals share the same transport calculation; their health context differs.
Arrival and the displayed plume edge use a 0.1 µg/L visualization threshold, not a health, drinking-water or regulatory limit. “Below display level” does not mean safe. Distances belong to the 60 km scenario; the illustrated landscape is not a surveyed map. The color is an explanatory overlay—dissolved metals are not necessarily visible.
This is a simplified educational model, not a calibrated Mekong forecast or a fish mortality, fish-tissue or human-health model. At 1× playback, one real second represents 24 simulated minutes. Field observations and independent validation are needed for operational use. EPA transport modelling context ↗
Illustrative mining release, landscape, flows and concentrations. No real mine, community, fishery or pollution incident is identified. Potential health effects depend on exposure and local conditions.
Open the full pollution simulation ↗
Deliver targeted alerts, assign responsible agencies, investigate discharges and track corrective action. Give communities timely, understandable information.
06 / RESPOND · DELIVERABLES #10, #11 & #12
Explore alerts on the phone, then open the dashboard or rehearse an outlet response.
Example alerts from the response desk.
Topographic map · example observations
Preview preferences stay in this page. No subscription is created.
Demonstration alerts and locations. No notifications are sent.
Where water-source assessments demonstrate a treatment need, develop suitable community systems and the local capability to operate, maintain and supply them. Verify that interventions improve water quality.
Progress through testing, assembly and feasible production stages.
Cut open the treatment unit and follow the water through five barriers.
13 / CUTAWAY VIEW
14 / CUTAWAY VIEWFOLLOW THE WATER
WHAT COULD COME NEXT
Three proposed capabilities to connect these ideas to future operational systems.
Bring verified observations, river flows and source records into a shared model. Compare response scenarios with uncertainty visible.
Proposed capabilityGive each sample a traceable digital record: collection, custody, laboratory checks and the decisions it supports.
Proposed capabilityHelp teams assemble evidence, draft clear multilingual messages and track assignments, with human review before any alert is sent.
Proposed capabilityFROM IDEAS TO IMPACT
mekong.jpg){kind=link}