185 MWdc Solar Project

The site was selected based on proximity to existing transmission infrastructure, strong solar resource quality, landowner interest, and results from environmental and cultural assessments. 

Utility‑scale solar refers to large solar power plants that generate electricity for the grid using photovoltaic (PV) panels. 

Solar arrays are arranged in rows across the project site. The space between rows may vary but are typically 15-30 ft apart. 

• Clean Energy Production: Reduces dependence on fossil fuels and lowers carbon emissions.
• Energy Cost Savings: Helps stabilize electricity prices by providing a low-cost, renewable energy source.
• Grid Reliability: Stores excess energy for use when demand is high or during low solar generation periods.
• Job Creation: Supports the local economy by creating construction and operations jobs.
• Minimal Environmental Impact: Solar farms use non-invasive land management practices and often include vegetation that supports pollinators and local ecosystems.

Solar generates power during peak demand periods when electricity prices are highest, helping to stabilize costs and reduce strain on the ERCOT grid.

They improve grid resilience, generate tax revenue, create jobs, and support local infrastructure. 

The project will bring tax revenue, construction jobs, long‑term operations roles, and lease payments to participating landowners. 

The project will contribute funding for local services, schools, and infrastructure. 

Studies show utility‑scale solar projects do not negatively affect property values. 

Electricity will serve the local area first, with additional power routed through ERCOT as needed. 

No. The project is funded by private investment and federal tax incentives common across all energy sectors. 

No. solar panels use anti‑reflective coatings and are evaluated through glint and glare studies. 

Solar panels will be mounted in rows approximately 9–10 feet high, with fencing and vegetation. 

Minimal, downward‑facing, lighting within the substation, only for safety and security. 

It will be maintained with native grasses, rotational mowing, and potential pollinator‑friendly vegetation. 

The site will be fully decommissioned, equipment removed, and land restored. 

Buffer zones, construction timing adjustments, and habitat preservation measures are implemented as necessary, based on wildlife surveys of this project location. 

The project avoids jurisdictional waterways and uses erosion control and sustainable land management practices. 

Modern crystalline silicon panels are consistently characterized as non‑hazardous under EPA testing. 

Yes — a non‑obtrusive fence designed to blend with the rural landscape. 

Yes. EE North America maintains the site throughout its lifespan. 

Final design elements will be shared publicly once complete. 

The project will comply with NFPA 70, NFPA 855, IFC, UL 9540/9540A, UL 1973, and other relevant standards. 

It is extremely rare. Panels are fire‑resistant and installed using best‑practice safety measures. 

The project includes pre‑operational planning and training with local fire departments, remote monitoring, and built‑in safety controls. 

Yes — the project meets or exceeds all applicable codes and standards. 

The team has extensive experience developing, constructing, and operating utility‑scale solar projects. 

Yes — coordination with local authorities is a core part of the safety and permitting process. 

The project follows NERC CIP standards, FERC reliability requirements, LSIPA compliance, secure network architecture, continuous monitoring, and operator training.