Concept rendering of the planned solar campus, landscaped array, and operations pavilion

Solar & resilience

Power with a plan.

The Greens Project is envisioned as a solar-first, off-grid community network. A dedicated array, rooftop generation, storage, microgrid controls, and a reserve layer form the proposed architecture.

ILLUSTRATIVE CONCEPT RENDERING

Built for continuity

Power backed by a plan.

Solar generation is only the beginning. The proposed off-grid system pairs it with storage, local controls, priority circuits, and reserve generation so the community can plan for nighttime, cloudy weather, and equipment interruptions.

  1. 01 / THE SYSTEM

    Generate

    Solar on homes and shared buildings, plus a dedicated community array.

  2. 02 / THE SYSTEM

    Store

    A community battery reserve planned to carry energy into the evening and through interruptions.

  3. 03 / THE SYSTEM

    Balance

    Microgrid controls and inverters coordinate generation, storage, and demand.

  4. 04 / THE SYSTEM

    Prioritize

    Essential water, communications, security, and food systems receive a defined power plan.

  5. 05 / THE SYSTEM

    Backstop

    Dispatchable reserve generation is part of the design for extended low-solar periods.

Site by site, in the open. Capacity, expected backup duration, priority loads, reserve equipment, maintenance plans, and test results will be published when engineering is complete. No performance figures are claimed at this concept stage.

What happens when the sun sets

Designed for the whole day.

In normal conditions, rooftop and community solar would serve current demand and charge storage. After sunset or in lower output, stored energy would support the community. If a long low-solar period or equipment fault exceeds that reserve, dispatchable backup and a prioritized load plan would support essential services.

Final sizing must come from site-specific load modeling, weather data, utility design, safety review, and permitting. The first community will set the evidence standard for the wider network.

Earlier concept rendering of a planted solar array near the golf landscape
CONCEPT RENDERING · SOLAR LANDSCAPE

ILLUSTRATIVE / SCENARIO MODEL

Explore the scale of self-reliance.

Adjust a planning scenario to see how the housing mix affects energy demand. Every starting value is an illustrative assumption, including the housing counts and solar yield.

System losses: 18% · usable battery fraction: 80% · critical share: 35% · residential diversity: 45%. Shared loads: Water & wastewater 1,600 kWh/day; Golf irrigation & maintenance 1,200 kWh/day; Grocer, public center & amenities 2,400 kWh/day; Cart charging, lighting & security 600 kWh/day.

Daily energy18,320kWh/day
Indicative solar4,964.8kW
Usable battery9,618kWh
Nominal battery12,022.5kWh
Peak planning allowance2,168kW
Average critical load267.2kW

PV = daily energy ÷ (solar yield × 0.82). Usable storage = daily energy ÷ 24 × 0.35 × storage hours. Nominal storage = usable storage ÷ 0.8.

These estimates do not prove continuous off-grid operation. Hourly weather/load simulation, equipment selection and professional engineering remain required.

Download this scenario →

Designing the complete system

Every load. Every season.

Water & wastewater

Pumping, treatment, storage and essential sanitation loads need measured schedules and a critical-power plan.

Golf & mobility

Irrigation, maintenance facilities and cart charging are scheduled around solar availability and course operations.

Distribution & controls

Inverter ratings, protection, local distribution, metering and load shedding are coordinated by qualified electrical designers.

Reserve & emergencies

Extended low-solar periods need dispatchable reserve, maintained fuel supply, essential circuits and documented emergency procedures.

Maintenance & lifecycle

Battery degradation, equipment replacement, inspections, spares and operating responsibilities are part of the design budget.

Commissioning & proof

Hourly simulation, safety review, islanded operation tests and published commissioning results establish site-specific performance.

Transparency by design

The numbers will be public.

There are no promised kilowatts or autonomy hours yet. Before any community opens, these site-specific figures and test results should be easy for prospective residents to find and understand.

Solar capacityTo be engineered

Rooftop and community array sizes for each location.

Usable storageTo be engineered

Battery capacity and lifecycle assumptions.

Backup durationTo be modeled

Target hours for essential and whole-community loads.

Reserve sourceTo be selected

Dispatchable backup equipment and fuel strategy.

Operating proofTo be published

Commissioning, maintenance, and resilience test results.

Follow the build

See how the vision takes shape.

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