Abstracts

Panama’s water story is one of growing tension: repeated droughts are straining hydropower, urban supply, agriculture, and canal operations, while basin-level adaptation efforts are trying to keep the system resilient.

Transboundary basins are where water security, politics, and livelihoods meet under pressure. This post explores 10 high-stakes examples, from the Indus and Nile to the Mekong, Jordan, and Euphrates-Tigris, showing why cooperation over shared waters has never mattered more.

Uzbekistan’s hydrology is shaped by scarcity, transboundary dependence, and the long legacy of the Aral Sea basin. With agriculture consuming most withdrawals and river flows under growing climate pressure, better basin-scale data and forecasts is becoming essential for water security.

At GeoField 2026 in Rome, BWI explores how river basin digitization and river flow forecasting can improve irrigation dispatch, strengthen water efficiency, and help basin managers balance agriculture with energy, industry, drinking water, and ecosystem needs.

Climate change is intensifying 9 major flood hazards worldwide. From river flooding to GLOF, discover which threats impact your region and why early warning saves lives.

Pakistan’s hydrology is a story of contrasts: glacier-fed rivers, monsoon surges, heavily managed plains, and a fragile delta. This article explores how the country’s river basins behave, what is changing, and how basin digitization can help build a more resilient water future.

The Aral Sea was once the fourth-largest lake on Earth; today, it is a fragmented shadow of itself, with 90% of its water gone. This post explains how Soviet-era irrigation for cotton starved the sea, triggered ecological collapse, and turned a thriving fishing region into a dust-choked wasteland. You’ll see how policy choices, not nature, drove one of the worst environmental catastrophes of the last century, and what limited recovery looks like today.

BWI is useful for ungauged rivers because it combines sparse-data forecasting, hydrological constraints, and uncertainty estimates to deliver basin intelligence where traditional monitoring is missing.

Water is now a strategic variable that shapes performance, resilience, and investment decisions. BWI helps organizations turn fragmented hydrological data into actionable river-flow forecasts and basin-wide intelligence, even in ungauged or data-sparse basins.

BWI is not replacing weather forecasts with kriging, but correcting and densifying them at the basin scale using connected ground sensors. That makes the hydrological model more sensitive to the rainfall that actually falls on the catchment, which is the main reason kriging is valuable for small basins with high spatial variability.