WATER · FROM · AIR LAKE VICTORIA · 2026 Water from Air Lake Victoria · Phase 1
A programme of Water for People & Peace
DocumentPublic summary · Rev. 2026.04
StatusPhase 1 · Pre-deployment
Operating environment0°–5°S · 22–32°C · 70–85% RH

Waterfrom air.

A decentralised infrastructure platform delivering WHO-standard drinking water to schools and clinics across the Lake Victoria basin. No grid. No pipeline. No groundwater dependency. Maintained by engineers who live there.

Atmospheric water generation
+ Solar photovoltaic + Battery
= One off-grid asset
450 L/day · 225 people served

Daily output / asset450L · day⁻¹Nominal 30°C / 80% RH. Lake Victoria conditions routinely exceed nominal.[1]
Specific energy0.20kWh · L⁻¹GENAQ Stratus S200 nominal. Industry benchmark for AWG efficiency.[2]
People served / asset225paxWHO minimum drinking water of 2 L per person per day.[3]
GENAQ deployments75+countriesActive across humanitarian, defence, and community applications.
§·01
The Problem

40 million people. No safe water.

East Africa
Apr 2026

Lake Victoria is the world's second-largest freshwater lake. It is also one of its most contaminated. The communities that depend on it are exposed to endemic cholera, typhoid and bilharzia — from the same water they drink.

The lake is the primary water source for over 40 million people across Kenya, Uganda, Tanzania, Rwanda and Burundi. It is simultaneously a drinking source and a sink for untreated industrial discharge, domestic sewage, and agricultural runoff.[4]

Conventional responses — boreholes, treatment plants, piped distribution — are capital-intensive, slow to deploy, and operationally fragile in remote environments. They also remain dependent on the same compromised source. Boreholes deplete groundwater. Pipelines fail without grid power. Treatment plants need chemicals trucked in from elsewhere.

Lake Victoria Basin · key indicators
Population dependent on lake>40,000,000
Riparian nations5
Lake surface area68,800 km²
Annual ambient humidity (mean)70–85% RH
Mean ambient temperature22–32 °C
Solar resource (peak sun hours)5.5 h · day⁻¹
Last comprehensive ecological survey1927–28
Operating environment. The basin sits between 0° and 5° south of the equator. Ambient humidity routinely above 70%, temperatures 22–32°C year-round. These are near-optimal conditions for atmospheric water generation. The technology is best-suited to exactly where the need is greatest.
§·02
The Technology

Drinking water, generated from ambient humidity.

AWG · Atmospheric
Water Generation

Atmospheric Water Generation replicates the natural process of condensation. Ambient air is drawn through a multi-stage filtration and condensation system. Moisture is extracted, treated, mineralised, and dispensed as drinking water that meets or exceeds WHO standards.

No borehole. No pipeline. No dependence on any water source at all — the source is the air.

Paired with solar photovoltaic arrays and battery storage, the system operates fully off-grid. The same tropical sun that drives the basin's high ambient humidity also powers the unit that harvests it.

Technology partner. GENAQ Technologies S.L. (Lucena, Spain). Part of the KEYTER Group, with over 35 years of industrial heat-exchange and refrigeration engineering heritage. Manufacturing AWG systems since 2008, deployed in 75+ countries across humanitarian, defence, industrial and community applications.[5]

  • ISO 9001 certified · CE conformity
  • EU Seal of Excellence
  • U.S. Department of Defense — NextGen Technology (xTech) Award
  • Active deployments in Kenya, Djibouti, Madagascar, Equatorial Guinea, Senegal, Nigeria, Benin, Morocco, UAE, Jordan, Qatar, Guatemala
  • In-house design and manufacture from Lucena, Spain
  • Climate chamber: pre-deployment performance verification under any specified site conditions
Fig. 02.1Five-stage water quality system · GENAQ AWG
STAGE · 01Air intake& pre-filterparticulates ▾ STAGE · 02Condensationcyclevapour → liquid STAGE · 03Finefiltrationmicroparticles ▾ STAGE · 04UVsterilisationbacteria · virus ▾ STAGE · 05Post-mineralisationtrace minerals ▴ OUTPUTWHO-gradedrinking waterindependent of source INPUT — ambient humid air · 70–85% RH CONTINUOUS · CYCLE TIME — sub-second / litre across stages 01–05 ▸ NO GROUNDWATER EXTRACTION ▸ NO PIPED DISTRIBUTION ▸ NO CHEMICAL CONSUMABLES ▸ NO PLASTIC WASTE
§·03
The System

One asset. Air, sun, water.

Standard unit
configuration

Each deployment is a single integrated asset: an AWG unit, a solar photovoltaic array sized to power it, and a battery system sized for one full day of autonomy.

The system operates without grid connection. It produces water during the day and overnight from stored energy. Installation takes two to four weeks. Maintenance is light, routine, and — from Year 2 onwards — performed entirely by locally certified engineers.

Why this beats the alternatives. Trucked water in remote East African areas costs $0.30–$0.50/L. AWG eliminates the logistics layer entirely. Boreholes carry yield risk and deplete groundwater. AWG carries no extraction risk, requires no diesel, generates no plastic.
AWG module~450L · day⁻¹GENAQ Nimbus N500 nominal output. Solar-compatible.
Solar PV array8–10kWpSized at 5.5 h peak sun, 78% system efficiency.
Battery storage20–30kWhLFP chemistry. 1 day full-load autonomy.
Daily energy draw110–130kWh · day⁻¹Solar-only operation under nominal conditions.
Deployment time2–4weeksSite to commissioning. Modular, replicable.
Design life20+yearsVersus 5–10 years for typical borehole pump.
Fig. 03.1Standard asset · system block diagram
5.5 h peak / day Solar PV array8–10 kWp Battery (LFP)20–30 kWh · 1d autonomy GENAQNimbus N500AWG unit450 L · day⁻¹ 450 LStorage + kiosk225 people · day⁻¹ photonsDC110–130 kWh/dwater ENERGY SOURCE — sun ▸ off-grid · zero diesel · zero piped supply WATER SOURCE — atmosphere ▸ no borehole · no groundwater · no pipeline
§·04
Unit family · GENAQ AWG

Sized to the site, not the other way round.

A mixed fleet is deployed depending on context. School and clinic sites take the compact Stratus S200, the most efficient unit in the family. Community-scale lakeshore hubs take the Nimbus N500. Hub-level supply at fish landing sites and large health facilities takes the Cumulus C500 or, at scale, the Cumulus C5000 — already proven in solar-powered remote-community deployment in Djibouti.

GENAQ AWG units · nominal conditions 30°C / 80% RH · 2026 catalogue
ModelDaily outputSpecific energyApplication
Stratus S200202 L · day⁻¹0.19 kWh · L⁻¹Schools, clinics, health posts. Most efficient. Indoor-deployable. Solar-compatible.
Nimbus N500506 L · day⁻¹0.24 kWh · L⁻¹Village-level off-grid supply. Proven in East Africa. 250–500 person communities.
Cumulus C500502 L · day⁻¹0.42 kWh · L⁻¹Portable, ruggedised. Rapid deployment. Proven in humanitarian operations.
Cumulus C50005,091 L · day⁻¹0.26 kWh · L⁻¹Hub-level supply. Market centres, large health facilities. Solar-proven in Djibouti.

Lake Victoria's tropical humidity routinely exceeds nominal conditions. Real-world output frequently surpasses stated specifications. Source: GENAQ 2026 Catalogue and Pricelist.

§·05
Phase 1 · Kisumu

Seven sites. Western Kenya. Twelve months.

Year 1
Lakeshore
Kisumu County

Phase 1 deploys a mixed fleet of seven AWG assets across lakeshore communities in the Kisumu region of western Kenya — the most water-stressed yet climatically suitable region for AWG globally.

The pilot is sized to generate the performance data, community trust, engineering capability, and operational infrastructure needed to justify a significantly larger basin-wide rollout. Each site is selected for community need, demographic reach, and long-term infrastructure value.

Phase 1 is not a demonstration. It is a deployment.

Site logistics. Equipment originates EXW Lucena, Spain. Routing: Valencia port → sea freight (22–28 days) → Mombasa → SGR rail to Nairobi → road to Kisumu. Total port-to-site transit: 5–7 weeks.
Phase 1 deployment · 7 sites · Kisumu region
Site typeQtyGENAQ unitL · day⁻¹ (90%)
Community hub4Nimbus N500455
School / clinic3Stratus S200182
Total fleet7Mixed2,572
Solar (total)
28.7 kWp
Battery (total)
602 kWh
Annual production
~938k L
People served / day
~1,286

Output figures at 90% of nominal 30°C/80%RH spec. Lake Victoria humidity regularly exceeds 80%. Solar sized at 5.5h peak sun, 78% system efficiency. Battery: 1 day autonomy at full load.

Fig. 05.1Verification metrics · +90 days post-commissioning
231,480LITRES PRODUCED7 assets × 90 days >95%UPTIME TARGETremote IoT monitoring $0.05–0.10COST PER LITRElifecycle, solar-powered >80%SOLAR SELF-SUFFICIENCY% generation vs grid draw 7 / 7SITES WHO-COMPLIANTindependent lab verified EVIDENCE BASE — every data point captured via remote IoT monitoring is evidence for the next deployment phase.
§·06
Flow of water

Cleaning, analysis, drinking.

Lakeside
community hub

The system is built around a continuous flow. Air enters the unit. Water is generated, cleaned, sterilised, mineralised. Each litre is sampled and tested. Stored, dispensed at a free community kiosk. Drunk.

At every stage, the water is auditable. Independent lab certification of WHO compliance at each site. Continuous remote monitoring of total dissolved solids, temperature, flow rate, system health. The kiosk dispense rate, by hour, by day, is logged.

This matters because in the basin, drinking water that looks clean is not the same as drinking water that is clean. The platform makes the difference visible.

  • Cleaning. Five-stage filtration and sterilisation, applied to every litre, before storage.
  • Analysis. Independent laboratory testing for WHO compliance at commissioning and at quarterly intervals. Continuous in-line telemetry on water quality and system performance.
  • Storage. Insulated tank with food-grade lining. Stored water re-circulated through UV before dispense to prevent biological growth.
  • Dispense. Community kiosk operating during daylight and into evening from battery. Free at point of use during Phase 1.
  • Drinking. Two litres per person per day at WHO minimum. Mineralised for taste and palatability; not flat distilled water.
Note on water quality. AWG output is, by construction, independent of source-water quality. Lake contamination, groundwater contamination, agricultural runoff, sewage — none of these reach the AWG product stream. The water is generated downstream of the air, not upstream of the lake.
§·07
Engineering programme

Maintained by engineers who live there.

12-month curriculum
50 trainees · Year 1

Technology programmes in the Global South have a well-documented failure pattern: equipment is installed with donor funding, the implementing organisation moves on, and within years the systems fall into disrepair.

We design against this from day one. Before the first AWG unit is commissioned, we will have trained and certified the local engineers who will maintain it — not as a secondary feature, but as the centrepiece of the programme.

When external funding ends, the technology will still be running. Because the people who understand it grew up on the shores of the lake.

Programme structure · 12 months · 4 phases
PhaseDurationContentOutcome
013 monthsSolar PV fundamentals: design, installation, electrical safety, inverter/battery, fault finding, commissioningSolo install of solar PV up to 20 kW
023 monthsAWG technology & GENAQ systems: principles, S200/N500 operation, diagnostic fault-finding, water quality testingGENAQ-certified AWG technician
033 monthsSolar refrigeration & cold chain: refrigeration principles, solar cold storage, food safety, gas handlingCold-chain technician
043 monthsSupervised field deployment: live install & maintenance, mentor sign-off, end-of-programme examFull certification, co-issued with GENAQ
Trainees · Year 1
50 across cohort
Female enrolment min.
40% targeted outreach
Stipend
$300 / month
Employment guarantee
2 yr post-graduation
§·08
The wider system

Six pillars. One basin.

The Solar AWG programme is the technology spine of a longer initiative to revitalise Lake Victoria and the communities that depend on it. As clean water security is established, complementary programmes address the lake's other interconnected crises — each one building on the infrastructure, the community trust, and the local technical expertise that the water programme creates.

PILLAR 01

Lake restoration
& environment

The overarching mission. Anchored to the Lake Victoria 100 centenary expedition — the first comprehensive ecological survey of the lake in 100 years, replicating Michael Graham's 1927 baseline.

LV100 · 2027 expedition
PILLAR 02

Water
& sanitation

This programme. Decentralised, off-grid, independent of source-water quality. WHO-grade drinking water at point of use. Phase 2 extends to grey-water management and constructed wetlands.

WHO compliant · 7 sites Y1
PILLAR 03

Energy
& water as a service

Distributed renewable infrastructure as the delivery mechanism. The same solar architecture that runs the AWG runs the kiosk, the cold store, the school lights, and surplus to neighbouring households.

Off-grid · solar + LFP storage
PILLAR 04

Aquaculture
& food security

East Africa's fastest-growing food production sector. Power and cold-chain infrastructure as enablers. Supported by Aquatix (AQX), the pan-African aquaculture platform with operating tilapia businesses in the region.

AQX · ~30,000 MT target at maturity
PILLAR 05

Women's health
& education

Vocational training (solar, AWG, cold-chain). Microfinance access through Equity Bank Foundation. Mfangano Island programme with Train My Generation: women's health, vocational training, eco-restoration.

40% female enrolment min.
PILLAR 06

Commercial
enterprise

The Water for People & Peace foundation has commercial flexibility built into its mandate. Social enterprises with margin, not perpetual subsidy. Revenue streams designed in: kiosk fees, maintenance contracts, mini-grid surplus, carbon credits.

30–55% cost recovery by Y2
§·09
Phase 2 / 3 · Data architecture

Every asset is also a sensor.

Years 2–5
Basin-wide

Each AWG asset deployed under this programme is instrumented from day one. Remote IoT telemetry reports water quality, system health, energy yield, kiosk dispense rate, and ambient atmospheric conditions — continuously.

At Phase 1 scale, this is operational telemetry: a way to detect faults, schedule maintenance, and verify performance. At Phase 2 scale (50+ assets, Kenya and Uganda) and Phase 3 scale (150+ assets, basin-wide), it becomes something else: the most granular, longitudinal environmental dataset in the Lake Victoria basin.

This is the foundation for AI-augmented operations. Predictive maintenance. Anomaly detection across the fleet. Atmospheric humidity mapping that informs siting for the next deployment. A basin-scale data layer that complements the LV100 ecological survey — water quality and system performance every minute, alongside the once-a-century scientific baseline.

Smart cities and towns are not announced. They emerge, asset by asset, from the data each one generates.

Programme roadmap · Phase 1 → Phase 3
Phase 1 (Y1)Phase 2 (Y2–3)Phase 3 (Y3–5)
FocusAWG drinking water+ Cold chain & sanitation+ RO at scale
Geography7 sites · Kisumu50+ sites · KE + UG150+ sites · KE+UG+TZ
Solar28.7 kWpExpanded + cold chainIndustrial scale
Engineers50 certified+ 2nd cohort (80)Regional training hub
Data layerAsset telemetryFleet operationsBasin atmospheric model
Architecture. Every site reports to a single operations dashboard. Telemetry includes: water quality (TDS, pH, turbidity), system performance (output L/h, energy draw, battery state-of-charge, solar yield), and ambient conditions (temperature, RH). The aggregated dataset becomes a public-good resource for basin-wide environmental management — accessible to LVBC, LVFO, KEMFRI, ACARE, and partner research institutions.
The smart town is not a vision document. It is a deployment of decentralised, instrumented infrastructure. One asset at a time. One dataset at a time. Beginning at the lake's edge.
§·10
The team

Who is doing the work.

The programme is led by Charlie Blake from Nairobi, on behalf of the Water for People & Peace foundation. The wider team brings together the foundation's leadership, scientific authority, the lake's own long-term scientific narrative, and UK-side programme architecture.

Lead Africa programme

Charlie Blake

Advisor — Water for People & Peace, Africa
Aquatix (AQX) · Nairobi, Kenya

Sub-Saharan Africa-focused business development, impact investment and sustainability professional. Extensive experience supporting frontier and emerging market businesses across food security, fintech, and high social impact technology.

Currently with Aquatix (AQX), the pan-African aquaculture platform. Charlie leads the programme on the ground — anchoring the Africa-side commercial leadership, the in-region partner relationships, and the link to the broader food-security pillar.

Foundation

Emmanouil Gounalakis

President — Water for People & Peace
Athens, Greece · London branch

President of the Water for People & Peace foundation, established in Athens to promote access to safe, clean drinking water in regions affected by the global water crisis — without distinction of nation, religion or race.

The foundation has delivered projects across Greece, the EU, India, Iran, Iraq, Jordan, Lebanon, Morocco and Syria. The Lake Victoria programme is its first major sub-Saharan African deployment.

Lake Victoria 100

Mark Haviland

Co-Director — Lake Victoria 100
Co-founder — Train My Generation · London

Co-Director of the Lake Victoria 100 Graham Centenary Expedition — the first comprehensive ecological assessment of the lake in a century, in partnership with the Lake Victoria Fisheries Organisation.

Co-founder of Train My Generation, working on Mfangano Island across women's health, vocational training and eco-restoration. Public 30-year commitment to the lake's recovery.

Scientific authority

Dr John Hassard

Reader in Physics · Senior Fellow
Imperial College London · Blackett Laboratory

Particle physicist with a 30-year track record of turning physics IP into deployable technology. Founder of HydroVenturi Ltd, co-founder of deltaDOT Ltd, and of Gusto Systems (advanced air pollution analysis).

Former research fellow at Harvard and Cornell. Special advisor to the House of Commons Select Committee for Science and Technology.

Programme architecture

Jarrod Frye

Programme architect & partnerships
United Kingdom

UK-side architect of the programme structure: convening partners across the AWG technology side (GENAQ), the energy side, the scientific side (Imperial, KEMFRI, ACARE), and the in-region delivery partners.

Coordinates the Information Memorandum, the partner ecosystem, and the connective tissue between the foundation, the commercial vehicles, and the field operations.

Partner
ecosystem
GENAQ Technologies · Imperial College London · Lake Victoria 100 · Train My Generation · Aquatix (AQX) · Lake Victoria Fisheries Organisation · KEMFRI · ACARE · WWF (Aquaculture) · Equity Bank Foundation · Barefoot Solar
§·R
References & notes

Sources.

  1. [1] Output figure assumes Lake Victoria operating environment ≥ nominal AWG conditions (30°C, 80% RH). Climate data: Lake Victoria Basin Commission. Latitude band 0°–5°S. Mean annual humidity 70–85% RH.
  2. [2] Specific energy: GENAQ Stratus S200, 0.19 kWh/L at nominal. Source: GENAQ Corporate Overview 2025 / 2026 Catalogue and Pricelist.
  3. [3] WHO minimum drinking water requirement: 2 L per person per day. World Health Organization, Guidelines for Drinking-water Quality (4th edition).
  4. [4] Lake Victoria Basin Commission, State of the Basin Report 2026. World Bank, Reviving Lake Victoria: A Regional Approach to Inclusive Sanitation (2025).
  5. [5] GENAQ Technologies S.L., Lucena, Spain. Part of the KEYTER Group. ISO 9001 certified, CE conformity, EU Seal of Excellence, U.S. DoD NextGen Technology (xTech) Award.
  6. [6] Lake Victoria 100 (Graham Centenary Expedition) — replicating the 1927–28 Fisheries Survey of Lake Victoria conducted by Michael Graham aboard the SS Kavirondo. Original report: Graham, M. (1929) The Victoria Nyanza and its Fisheries. lakevictoria100.com.
  7. [7] Phase 1 deployment plan, logistics route, and operational assumptions per programme Information Memorandum (2026). Routing: Lucena → Valencia → Mombasa → SGR Nairobi → Kisumu.