A twin-bank river platform that converts flood protection into distributed clean energy, water resilience, and activated public space.
This 10-kilometer modular infrastructure system integrates:
100-year flood protection
Controlled water management
Solar corridors with integrated battery storage
Green power offtaker zones
On-crest tourism and public realm activation
The platform transforms climate risk into long-term regional productivity.
This platform is structured as long-duration climate infrastructure designed for public alignment, technical robustness, and disciplined capital participation.
It is engineered to:
Meet 100-year flood resilience standards
Enable basin-level deployment logic
Align with institutional capital frameworks
Support structured public-private collaboration
The project is positioned not as a speculative development, but as a phased infrastructure system designed for validation, certification, and progressive activation.
The Yom River Basin faces recurring flood cycles, increasing climate variability, and underleveraged riverfront land.
Traditional flood control systems focus solely on protection — often shifting hydraulic risk downstream or across the river.
What is missing is an integrated system that delivers:
• Hydraulic safety
• Social fairness across both riverbanks
• Economic activation
• Long-term energy resilience
Our objective is not simply to defend against water — but to organize it.
The solution is a symmetrically engineered twin-bank river dike system designed to maintain hydraulic balance and community equity.
Each standard module spans 10 kilometers.
Construction and activation occur in phased 1-kilometer segments, enabling early deployment of solar, storage, and tourism layers while maintaining full-module economies of scale.
The platform integrates six coordinated infrastructure layers:
Primary flood protection (Twin-Bank River Dike)
Water retention and buffer zones
Solar energy corridors with BESS
On-crest tourism and public realm
Twin-bank canal dike systems
Green power offtaker zones
Together, these layers form a distributed energy and resilience network.
Height: 5 meters
Base width: 40 meters
Crest width: 10 meters
Design life: 100 years
This establishes structural flood containment and cross-river hydraulic balance.
Strategically located buffer reservoirs behind the dike:
• Reduce peak flood pressure
• Stabilize hydraulic forces
• Improve groundwater recharge
• Enhance drought resilience
Water is managed, not merely resisted.
Flood-protected land behind the dike supports:
• 5–6 MWp per 1 km segment
• Mandatory Battery Energy Storage Systems
• Modular scaling to 50–60 MW per 10 km module
• Digital aggregation readiness
Each segment functions as a standardized energy node — designed for corridor-based Virtual Power Plant integration.
The 10-meter crest is activated as a continuous linear destination.
Features include:
• 4-meter green crest zone
• Dedicated cycling and pedestrian lanes
• Lightweight hospitality nodes every 100 meters
• Viewing platforms and rest areas
These structures are engineered to remain structurally independent from flood protection systems.
Infrastructure becomes public space.
Public space becomes economic value.
Where canals intersect the river, standardized 40-meter canal interfaces regulate seasonal water transfer.
Multi-bay gate systems allow:
• Continuous dry-season irrigation
• Controlled rainy-season flow
• Canal bank protection
• Agricultural water stability
This secondary layer ensures flood control does not displace risk into farmland.
Adjacent to each solar corridor lies a protected industrial strip:
• 80 meters × 980 meters per segment
• Subdividable into SME industrial plots
• Direct renewable energy integration
• Floodwall secondary protection
These zones attract agro-processing, electrified industry, and export-oriented green manufacturing.
Every 100 meters, lightweight hospitality nodes activate the river crest.
Cafés, viewing decks, small lodges, and rest stops create recurring revenue while enhancing public acceptance.
This approach:
• Generates continuous tourism income
• Strengthens social legitimacy
• Converts infrastructure into destination
The river corridor becomes a place — not merely a barrier.
The platform generates layered economics:
• Solar energy (20–25 year PPA horizon)
• Battery-driven flexibility revenue
• Tourism and hospitality cash flow
• Industrial land lease income
• Reduced flood damage exposure
Flood protection is the foundation.
Energy and economic activation are the returns.
• Standard 10 km modules
• 1 km phased activation
• 50–60 MW solar capacity per module
• Expandable corridor-wide aggregation
Suitable for:
• Strategic climate venture capital
• Infrastructure funds
• Energy transition investors
• Resilience-focused capital
Further technical and financial materials are available via Data Room access under NDA.
We design and deliver integrated river-based infrastructure platforms that simultaneously:
• Protect both riverbanks fairly and symmetrically
• Unlock de-risked land for renewable energy and green industry
• Activate public space through lightweight, human-scale design
• Enable modular, basin-level scalability
We build infrastructure that performs technically, economically, and socially — at the same time.
Flood protection and hydraulic integrity are non-negotiable.
Every structural element enables layered economic use.
Twin-bank symmetry ensures no community bears disproportionate risk.
Hospitality and tourism structures remain lightweight and reversible.
Standardized energy nodes enable future corridor-based VPP integration.
A river dike is not a barrier — it is a corridor.
A crest is not a service path — it is a destination.
Flood protection is not the outcome — it is the enabler.
This is infrastructure designed for the climate era.
We welcome exploratory dialogue with aligned institutions, infrastructure partners, and long-duration capital participants.
This platform is structured for phased collaboration and basin-level scaling.
Engagement begins with structured discussion — not capital solicitation.