Environmental monitoring service · Founded 2024

See what's in the water beneath your land.

AquaPredict is a groundwater quality prediction service. Data-driven neural network models forecast key quality indicators from routine water tests — helping farmers and water resources departments decide how groundwater can safely be used.

HardnessSARSalinity
AQUIFER
Well W-07 · quality forecast EXAMPLE
HardnessModerate
SARLow risk
SalinityHigh
Suitable for salt-tolerant crops; monitor soil salinity.
Why groundwater matters

The world's hidden water supply.

Groundwater sits out of sight beneath our feet — yet billions of people and much of the world's farmland depend on it. Its quality decides whether it can be drunk, used on crops, or needs treatment first.

99%

of all liquid freshwater on Earth is groundwater.

½

of the water withdrawn for domestic use worldwide comes from groundwater.

~25%

of all water used for irrigation is supplied by groundwater.

Source: UN World Water Development Report 2022, "Groundwater: Making the invisible visible"

Proven where it matters

Developed for a region that lives on groundwater.

The prediction models behind AquaPredict were developed and tested on groundwater from the Alnekheeb basin in Iraq — an area that relies heavily on groundwater, where knowing its quality is essential.

Testing water in a lab for every indicator takes time and money. Prediction models turn the measurements you already have into the quality indicators you need.

STUDY AREA

Alnekheeb basin, Iraq

A groundwater-dependent region used to assess and model groundwater quality.

Groundwater-dependent3 quality indicators8 input parameters2 neural network models
What it predicts

Three indicators that decide how water can be used.

TH

Hardness

The amount of dissolved calcium and magnesium. Hard water leaves scale in pipes, pumps and irrigation equipment and affects taste.

MATTERS FOR: drinking, equipment, pipes
SAR

Sodium Adsorption Ratio

Compares sodium with calcium and magnesium. High SAR water can damage soil structure, making it harder for water to soak in.

MATTERS FOR: irrigation, soil health
Sal

Salinity

The total level of dissolved salts. Salty water stresses crops, lowers yields and builds up salt in the soil over time.

MATTERS FOR: crops, drinking, livestock
What goes in

Eight standard water-quality measurements.

The models learn from common chemical parameters measured in groundwater samples — the ions that determine its hardness, sodium hazard and salinity.

AnionSO4Sulphate
AnionClChloride
AnionNO3Nitrate
AnionHCO3Bicarbonate
AnionCO3Carbonate
CationCaCalcium
CationMgMagnesium
CationNaSodium
Negatively charged ions (anions)Positively charged ions (cations)
The models

Two neural networks, put head to head.

The research compared two artificial intelligence models, assessing them with statistical indicators and graphical analysis.

RBF-NN

Radial Basis Function Neural Network

A neural network that maps inputs through radial "distance-based" functions, well suited to smooth, non-linear relationships.

Best performer PNN

Probabilistic Neural Network

A neural network built on probability theory. In the research, the PNN outperformed the RBF-NN in predicting groundwater quality — and it powers AquaPredict.

Smart input selection

The research also studied how the choice of input parameters affects accuracy, finding that adding variables can sometimes improve predictions. AquaPredict uses this to pick the best combination of measurements for each indicator.

Source: Allawi et al., Engineering Applications of Computational Fluid Mechanics 18(1), 2364749 (2024). doi:10.1080/19942060.2024.2364749

The service

From a water sample to a clear decision.

  1. 01

    Share your data

    Provide routine water-test results from a well or groundwater source.

  2. 02

    Model predicts

    The neural network predicts hardness, sodium adsorption ratio and salinity.

  3. 03

    Get your report

    A plain-language summary of groundwater quality for each source.

  4. 04

    Decide with confidence

    Plan irrigation, treatment or water allocation based on the results.

Who it's for

For the people who manage the water.

Farmers

Know whether well water suits your crops and soil before you irrigate.

  • Avoid damaging soil with high-sodium water
  • Match crops to the water's salinity
  • Protect pumps and drip lines from scale

Water resources departments

Monitor groundwater quality across a region faster and at lower cost.

  • Screen many wells with existing test data
  • Spot areas where quality is declining
  • Support planning and water-allocation decisions
The team

Civil engineers working on water resources.

Faculty of Engineering

Civil Engineering

AquaPredict was founded in 2024 by a civil engineering research team specializing in water resources, combining hydrogeology and water-quality knowledge with data-driven modelling.

Water resourcesGroundwater qualityNeural networksEnvironmental monitoring

Frequently asked questions

What does AquaPredict predict?

Three groundwater quality indicators: hardness, sodium adsorption ratio (SAR) and salinity.

What data does it need?

Standard water-quality measurements: sulphate (SO4), chloride (Cl), nitrate (NO3), calcium (Ca), magnesium (Mg), sodium (Na), bicarbonate (HCO3) and carbonate (CO3).

Which models are used?

Two neural networks were compared: a Radial Basis Function Neural Network (RBF-NN) and a Probabilistic Neural Network (PNN). The PNN performed better.

Where were the models tested?

On groundwater from the Alnekheeb basin in Iraq, a region that depends heavily on groundwater.

Why does SAR matter to farmers?

Water with a high sodium adsorption ratio can damage soil structure, reducing how well water soaks into the soil and harming crop growth over time.

The research

Built on open, peer-reviewed research.

Read the open-access study behind AquaPredict's groundwater quality prediction models.

Open access · CC BY

Allawi, M. F., Al-Ani, Y., Jalal, A. D., Ismael, Z. M., Sherif, M. M., & El-Shafie, A. (2024). Groundwater quality parameters prediction based on data-driven models. Engineering Applications of Computational Fluid Mechanics, 18(1), 2364749.

https://doi.org/10.1080/19942060.2024.2364749