
Battery energy storage systems help support the electrical grid by storing and supplying power when demand is high.
These projects are increasingly being developed on industrial properties with available land and utility infrastructure access.
Qualified properties may support long-term lease income with minimal disruption to ongoing operations.
Battery storage projects are commonly evaluated on:
We are actively expanding battery storage development opportunities in:
Additional markets may also be considered based on utility infrastructure and site characteristics.
While every project is different, many battery storage systems require:
Qualified property owners may benefit from:
Battery storage projects are typically designed to operate alongside existing industrial uses.
Our team reviews:
Not all properties qualify.
Submit 1 or more properties for analysis. Our team will do an initial feasibility review for each site.
No cost. No obligation.
A viable site must meet several requirements.
Size
Land Conditions
Access
Utility
Environmental Constraints
Zone
Location
A typical 5 MW, 20 MWh lithium ion BESS requires 0.25 to 0.75 acres.
This footprint includes battery containers, inverter enclosures, a transformer pad, fencing, access lanes, and required setbacks. Exact acreage depends on site shape, utility interconnection location, and local permitting requirements.
Battery modules are housed in standardized, UL certified 40 foot containerized enclosures.
Typical dimensions are 40 ft long, 8 ft wide, and 9.5 ft high.
Each container holds between 2.0 and 3.5 MWh depending on the manufacturer.
A 20 MWh system typically uses 6 to 10 containers, depending on the exact energy density of the units.
Inverter equipment is usually housed in dedicated 20 foot containers. Typical dimensions are 20 ft long, 8 ft wide, and 9 ft high. The inverter converts DC power from the battery into AC power for the grid.
Typically 8 to 13 total modular units, consisting of the following:
Benefits include:
Modern BESS projects use multiple layers of safety, including.
Next Energy 360’s development timeline begins with landowner permission and application development, which typically takes 1 to 2 months. Once the application is submitted, the utility interconnection study follows and usually takes 18 to 24 months. The combined feasibility period is generally two to three years.
Typically 25 to 40 years. A 40-year lease contains three, optional 5-year extensions. At the end of the lease, the site is restored to pre-project conditions.
The landowner provides a list of potential properties. Next Energy 360 screens these sites and produces a proposal. A follow up meeting is held to discuss viability and the Feasibility Agreement.
Copyright © Next Energy 360. All rights reserved.