DISTRIBUTED RESILIENT WATER INFRASTRUCTURE

Gaza Water Pod

When the main water system fails, water production should not fail with it.

GWP is developing modular, solar-first water treatment systems designed to produce safe water near the point of use when central networks, electricity or logistics become unreliable.

Explore GWP-5 Collaborate on the Pilot

Engineering v1.1 · Pre-IFC

ENGINEERING MEDIA SLOT GWP-5 industrial product render Add the verified project visual in Appearance → Customize → GWP Media.

Up to 5 m³/dayNominal design conditions

PV-firstLow-grid-dependence architecture

Locally serviceableStandard industrial components

ModularDesigned to scale beyond GWP-5

THE PROBLEM

Water infrastructure can fail long before water disappears.

Central desalination and municipal infrastructure remain essential. But in fragile or damaged environments, water delivery can fail even when water sources still exist.

Damaged networksElectricity outagesFuel dependencyTransport constraintsInaccessible roadsSpare-part shortagesLocal infrastructure failure

01Central system

02Broken distribution

03Local GWP node

SYSTEM ARCHITECTURE

A distributed water continuity layer

GWP is not intended to replace efficient centralized water infrastructure. It is designed to complement it with local water-production nodes that can continue operating closer to communities, clinics, schools and critical facilities.

Local source→GWP→Safe water storage→Community · Clinic · School

Solar PV↓Optional future continuity input

GWP-5

The first engineering node

A modular brackish-groundwater RO concept designed around solar-first operation, local serviceability and deterministic safety controls.

Nominal capacity up to 5 m³/day
Brackish groundwater
PV-first operation
Modular BWRO
Local maintenance
Offline safety controls
Controlled concentrate management

ENGINEERING MEDIA SLOT GWP-5 cutaway engineering view Add the verified project visual in Appearance → Customize → GWP Media.

Transportable treatment architecture with isolated wet and dry zones.

PROCESS ARCHITECTURE

Water treatment, expressed as an inspectable chain.

01SOURCE

02Pretreatment

03Chemical conditioning when required

04High-pressure pumping

052 × 4040 BWRO

06Remineralisation

07Disinfection

08Potable storage

Concentrate→Recycle→Controlled bleed→Future brine R&D module

DIFFERENTIATION

The innovation is not another RO membrane.

Solar RO already exists. GWP's intended differentiation is the system architecture surrounding it.

RESILIENCE

Designed for unreliable grids, logistics and infrastructure.

REPAIRABILITY

Standard industrial components wherever practical.

DISTRIBUTED DEPLOYMENT

Water production closer to users.

ADAPTIVE OPERATION

Future intelligence layer optimising pressure, recovery and operation within safe limits.

MODULARITY

A platform intended to scale from GWP-5 toward larger nodes.

BOUNDARIES

What GWP is — and what it is not

GWP IS

A distributed resilient water-production platform.
A complement to centralized infrastructure.
Designed for local maintenance.
An engineering project moving toward pilot validation.

GWP IS NOT

A newly invented RO membrane.
A replacement for every central desalination plant.
A commercially validated product yet.
A claim of universal 5 m³/day output.

ENGINEERING STATUS

Known, unresolved, and pending — shown explicitly.

Red or amber indicates unresolved engineering work, not failure.

Architecture

GREEN

Engineering architecture established

CAD geometry

GREEN

Collision and serviceability checks passed

Hydraulic model

AMBER

Requires source-water projection

Vendor selection

AMBER

Vendorisation pending

Pressure protection

AMBER

Final ratings and PSV architecture pending

Field validation

PENDING

Pilot #001 not yet deployed

Water chemistry

PENDING

Gaza source-water analysis required

Current GWP-5 engineering facts

6.0 × 2.4 × 2.58 m transport envelope approximatelyPlanning value

2 × 4040 BWRO elementsEngineering estimate

Single 2-element pressure vesselEngineering estimate

Dedicated recycle pumpEngineering estimate

Service aisleEngineering estimate

Isolated wet/dry zonesEngineering estimate

Approximately 3.1 t planning dry massPlanning value

Approximately 6 kWp PV conceptPlanning value

Small LFP battery for ride-throughEngineering estimate

Filtered forced ventilationEngineering estimate

Transport width approximately 2.4 mPlanning value

PRODUCTION DERATING

Nominal capacity: up to 5 m³/day

MODELLED — NOT YET FIELD VALIDATED

2 g/L≈ 4.8 m³/day

8 g/L≈ 4.2 m³/day

Winter scenario≈ 3 m³/day

Production varies with feed TDS, temperature, solar availability, membrane condition, recovery and operating pressure.

PILOT #001

From engineering model to field evidence

The first pilot is designed to validate water safety, reliability, energy consumption and maintainability.

Source-water analysis
Vendor freeze
Fabrication
FAT
Site installation
SAT
72-hour engineering run
30-day monitored operation
Independent water-quality verification

ORIGIN

Born from Gaza's water reality

The project originated from a practical question:

How can safe water remain available when the systems normally responsible for delivering it are disrupted?

Gaza is the first design context. The architecture is intended eventually for other conflict-affected areas, disaster zones, remote communities, island environments and fragile infrastructure regions.

Born for Gaza. Engineered for water-insecure places.

ENGINEERING MEDIA SLOT GWP field deployment architecture Add the verified project visual in Appearance → Customize → GWP Media.

FIELD DEPLOYMENT

A local production node, not an isolated machine.

WellRaw-water tankGWP-5Potable-water tankPV arrayConcentrate managementFuture brine module

Conceptual deployment accessories are shown as architecture, not final product specifications.

MODULARITY

Designed as a platform, not a one-off machine.

PretreatmentROPost-treatmentElectricalControlsChemical conditioningEnergy interfaceBrine interface

ENGINEERING MEDIA SLOT GWP exploded module view Add the verified project visual in Appearance → Customize → GWP Media.

ENGINEERING / PILOTGWP-5

FUTURE SCALE ARCHITECTUREGWP-20

FUTURE INFRASTRUCTURE NODEGWP-100

ENGINEERING PHILOSOPHY

Complexity only where it earns its place.

Store water, not excessive electricity.

Standard components before proprietary complexity.

Safety logic remains deterministic and offline.

Intelligence improves operation; it does not replace engineering protection.

Brine innovation must never block potable-water uptime.

LEADERSHIP

Dr. Saleh Alda

Founder & System Lead

PhD in Water & Sustainable Development with a background in civil engineering, innovation and multidisciplinary systems development.

Role: water strategy, system architecture, product direction, integration and field problem definition. Specialist mechanical, pressure, electrical and controls engineering collaborators are being assembled for pilot execution.

CURRENT STAGE

GWP-5 Engineering CAD v1.1

Pre-IFC · Source-water and vendor freeze pending

Pilot preparation

This project is under engineering development and has not yet completed field validation.

COLLABORATE

Help us move from engineering to field validation.

Engineering collaboratorsRO, mechanical, pressure systems, electrical and controls.

Gaza pilot partnersWells, sites, laboratories and operators.

SuppliersPumps, membranes, vessels, sensors, controls and solar systems.

Pilot fundingSupport for fabrication, validation and deployment.