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First project hosted on WATER4ALL-Africa

ANTICIP-EAU-CI

An integrated system to identify, understand and rank current and future risks to water supply — connecting household needs, water-point infrastructure, groundwater resources and environmental evidence into one decision-support framework.

Design complete

Prepared for the FPNR 2026 call. No funding award is claimed.

Community members gathering water in containers at a collection point
A community water collection point, Côte d’Ivoire

Why anticipate

A working water point today is no guarantee for tomorrow

A community can have a functioning borehole today and face serious strain a few years later — from population growth, rising demand, seasonal variability, breakdowns, ageing equipment, changes in the resource, or water-quality problems. Intervention still tends to start once the difficulty is visible, even though the information needed to anticipate it already exists — scattered across household surveys, water-point inventories, borehole records, hydrogeological measurements, and climate and environmental data.

The problem in numbers

Investment has widened access, but a working borehole today is no guarantee of a safe, sufficient service in a few years — and the gap is widest where it is hardest to see coming.

77%
At-least-basic drinking-water access (2024)

Pacte national pour la sécurité de l’eau 2026–2030

51% / 19%
Safely-managed water — urban vs rural population

Pacte national pour la sécurité de l’eau 2026–2030

36%
Population with a safely-managed drinking-water service

JMP estimate (UNICEF / WHO)

29.4M
Inhabitants (2021 census); Yamoussoukro growing +2.6%/yr

INS Côte d’Ivoire, RGPH 2021

General objective

See water-supply shortfall coming — and give decision-makers what they need to act before it does.

Develop and validate an integrated anticipation and decision-support system that identifies, characterises and ranks territories facing a current or future risk of water-supply shortfall — connecting population needs to the capacity of infrastructure and available resources, so decision-makers can act earlier, target investments more precisely, and strengthen the durability of water-supply solutions.

The idea in one picture

ShortfallNeedsCapacityNow5-year horizon

When rising needs outpace what infrastructure and resources can supply, a shortfall opens up. The system is built to see that gap coming.

Four specific objectives

Each objective is one stage of the workflow, and each feeds the next — from a shared evidence base to a protocol other territories can reuse.

  1. 01OS1 · Observe

    Build a shared evidence base

    Combine household access conditions, water-point status, borehole characteristics and relevant environmental information into one harmonised, traceable dataset.

  2. 02OS2 · Anticipate

    Model future risk

    Develop and validate spatio-temporal models that estimate current vulnerability and supply-tension risk at 1, 3 and 5 years, with explicit uncertainty.

  3. 03OS3 · Prioritise

    Rank where to act first

    Build a multi-criteria water-priority index and decision maps combining vulnerability, future risk, water quality, infrastructure capacity and data sufficiency.

  4. 04OS4 · Transfer

    Test it with real users

    Test the tools’ operational relevance with end users, then formalise a reproducible protocol for extension to other Ivorian territories.

Three contrasted pilot territories

Chosen to test the approach across a peri-urban–urban–rural gradient and a sedimentary–basement contrast. This working selection may still be adjusted before fieldwork begins, without changing the project’s scientific objectives.

Officials and technicians visiting the Songon water production site

Songon

Peri-urban · Sedimentary basin

A fast-growing area west of Greater Abidjan, heavily dependent on high-yield boreholes and exposed to groundwater-quality pressure from nearby farmland.

The Basilica of Our Lady of Peace on the Yamoussoukro lagoon

Yamoussoukro

Urban · Basement aquifers

An expanding urban centre where groundwater exploitation depends on weathered and fractured basement rock, testing the approach against growing urban demand.

Community members at a borehole and irrigation-plot inauguration in Téhini

Téhini

Rural · North-east

A rural area of the Bounkani region, where partial water-service coverage and hydro-climatic variability have been linked to drying sources and borehole malfunctions.

One evidence-to-decision workflow

The methodology follows a single loop, repeated as new observations arrive — rather than a one-off snapshot.

  1. 01

    Observe

    Household and community surveys, water-point and borehole inventories, water quality, hydrogeology, geophysics, climate and environment.

  2. 02

    Harmonise

    Consent and provenance, quality control and units, georeferencing, documented handling of missing values, one spatio-temporal database.

  3. 03

    Anticipate

    Current vulnerability, demand versus capacity, risk at 1, 3 and 5 years, with uncertainty and data-sufficiency reported alongside every estimate.

  4. 04

    Prioritise

    A water-priority index, decision maps, quality-alert signals, and a recommended next observation or action for each territory.

  5. 05

    Validate & transfer

    Cross-site field checks, workshops with end users, model recalibration, and a reproducible protocol for extension elsewhere.

A three-year work plan

The design phase is complete. Field and modelling stages are planned to begin once the project moves into deployment, and will be updated here as they progress.

  1. Design phase

    Complete

    Project design & preparation

    Objectives, methodology, pilot-territory selection, work plan and budget prepared for the FPNR 2026 call.

  2. M1 – M14

    Planned

    Data & territorial diagnostic

    Protocols and ethics clearance, baseline household and water-point surveys across the three pilot territories, a seasonal revisit, and one harmonised evidence base.

  3. M7 – M24

    Planned

    Prospective risk modelling

    Spatio-temporal models estimating current vulnerability and supply-tension risk at 1, 3 and 5 years, validated across sites with explicit uncertainty.

  4. M13 – M30

    Planned

    Prioritisation & decision support

    Calibration of the Water-Priority Index, decision maps and a first decision-support prototype for institutional users.

  5. M19 – M36

    Planned

    Field validation & transfer

    Cross-site validation, workshops with end users, model recalibration, and a reproducible protocol for extension to other Ivorian territories.

Work packages overlap by design, so evidence keeps improving models and priorities throughout the three years rather than in one final step.

Expected outputs

Verifiable products, not promotional claims — each tied to a pilot territory and a stage of the workflow above.

Illustrative previewSchematic illustration of the six expected outputs — not project findings. Every surface below is generated for demonstration and carries no real measurements.
NTéhiniSongonYamoussoukro

01 · A structured, harmonised evidence base

Field records, boreholes and prior studies consolidated onto one comparable grid across the three pilot territories.

LowerHigher

Project team

The people behind ANTICIP-EAU-CI

Researchers and engineers across geophysics, hydrogeology, water quality, hydroclimate and GIS, working alongside institutional advisers at ONEP. Select anyone to open their full profile.

How WATER4ALL-Africa supports this project

ANTICIP-EAU-CI is the first project WATER4ALL-Africa supports — its household and technician questionnaires shaped the platform’s own community and technician contribution forms, and its data model shaped W4A’s core schema. In return, W4A provides the governed digital infrastructure the project uses to manage its work: structured and consented data collection, quality control, traceability, mapping and the controlled restitution of validated results. W4A is infrastructure, not the research itself, and the project’s methods, models and findings remain independent results, evaluable on their own terms.

Governed collection, with consent recorded at the source

Provenance and quality control stay attached to every record

Controlled, privacy-safe restitution of validated results only

FPNR — Fonds des Programmes Nationaux de RechercheMinistère de l’Enseignement Supérieur et de la Recherche Scientifique de Côte d’Ivoire

Prepared for

The FPNR 2026 call (Fonds des Programmes Nationaux de Recherche), administered by Côte d’Ivoire’s Ministère de l’Enseignement Supérieur et de la Recherche Scientifique (MESRS). No funding award is claimed.

Proposal status

Project design complete for the FPNR 2026 call. No funding award is claimed.

ANTICIP-EAU-CI has been fully designed — objectives, methodology, pilot territories, work plan and budget prepared for the FPNR 2026 call. No funding award, partner confirmation or institutional mandate is claimed until an official decision exists. Territories, objectives and the schedule above are the working basis and will be confirmed as the project moves into deployment.