Modern battery storage projects include multiple layers of safety review before moving forward.

Systems are designed around prevention, detection, and containment. Safety features may include battery management systems, electrical protections, thermal management, fire detection, emergency shutdown, remote monitoring, fencing, signage, fire department access, and site-specific setbacks.

Projects are also reviewed for applicable codes, permitting requirements, environmental conditions, access, drainage, and emergency response planning.

Battery storage projects may include:

• Battery Management Systems that monitor cells
• Thermal management systems to maintain safe operating temperatures
• Smoke and gas detection for early warning
• Integrated fire detection and suppression systems
• Fire-rated spacing and setbacks
  Emergency stop buttons and remote shutdown capability
• Security fencing, controlled access, and site monitoring
• Fire department access and emergency response planning

Safety requirements are evaluated during the project review and permitting process.

The property owner doesn’t design, install, operate, or maintain the system.

If a site qualifies, those responsibilities are handled by experienced development, engineering, construction, and operations partners.

Benefits include:

• Long term, guaranteed lease income for 25 to 40 years.
• No upfront costs or operational burden.
• Next Energy 360 handles permitting, engineering, construction, and ongoing O & M.
• Small physical footprint with minimal visual or noise impact.
• A simple way to monetize underutilized or setback land without disrupting existing operations.
• Supports ESG and portfolio sustainability goals with measurable clean energy impact.
• Full decommissioning and site restoration at the end of the lease term.

No. Battery storage opportunities don’t always require a separate vacant lot.

A site may qualify if there is a usable portion of a larger industrial property that can be separated without disrupting the main business operation.

Examples may include excess yard space, truck parking, fleet parking, outdoor storage areas, contractor yards, expansion land, unused parking areas, or a side or rear lot within a larger property.

A viable site must meet several requirements.

Size

• 7,000 square feet of usable outdoor space typically supporting one 5 MW system (Larger sites may support multiple systems.)
• Final suitability is determined case by case

Land Conditions

• Land should be flat or near-flat, generally under 5% slope
• Irregular, steep, or heavily constrained parcels are more difficult to develop

Access

• Direct and practical access for large trucks and construction equipment is required
• Narrow, obstructed, or difficult-to-navigate access routes can disqualify a site

Utility

• Near existing electrical infrastructure
• Utility conditions reviewed during screening
• Utility access is a key viability factor

Environmental Constraints

• Must be outside the 100-year flood zone, ideally outside the 500-year flood zone
• Typically at least 100 feet from wetlands and streams

Zone

• Industrial zoning is preferred

Location

• Areas with higher demand and grid congestion are preferred, as they improve project viability
• Parcels near roadways, industrial zones, and logistics hubs are ideal, as they are typically closer to power infrastructure

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:

• Battery containers: 6 to 10 units, depending on container MWh rating.
• Inverter containers: 2 to 3 units.
• Additional equipment includes a transformer pad and switchgear.

Modern BESS projects use multiple layers of safety, including.

• Battery Management Systems that monitor cells.
• Thermal management through HVAC to maintain safe operating temperatures.
• Smoke and gas detection systems for early warning.
• Integrated fire detection and suppression systems.
• Fire rated spacing and setbacks per NFPA 855.
• Emergency Stop buttons and remote shutdown capability.
• Security fencing, controlled access, and site monitoring.

The first step is an initial site review. Next Energy 360 reviews the property’s usable land area, access, zoning, utility potential, and overall fit. This initial review typically takes 1 to 2 weeks.

If the site appears promising, the project may move into a formal feasibility period under an option or site-control agreement.

The early application and due diligence period typically takes 1 to 2 months. After that, the utility interconnection study often takes 18 to 24 months. In total, the feasibility period is usually two to three years, depending on the utility, permitting path, and project requirements.

During this period, the owner may continue using the property, subject to the terms of the agreement and any agreed access rights.

Yes. If the site moves forward under an option or site-control agreement, the property owner may receive option payments during the feasibility period.

These payments are separate from the long-term lease payments. The main lease income typically begins once the project is approved, built, and operating.

If the project advances, the owner may also receive payments during development and construction.

Payment terms vary by project and final agreement.

Broker compensation is handled directly between the broker and property owner.

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.