Hybrid microgrids for Florida facilities

Hybrid Wind + Solar + Battery Microgrids

When the grid goes down, your operations shouldn't. H.R. Current combines coastal wind, solar generation, and battery storage to keep critical loads running through outages and severe weather.

Islandable operation 100 kW to multi-megawatt scale Built for Southeast conditions

Power that adapts

How a Hybrid Microgrid Works

Each part has a clear job. The controls decide when to generate, store, import, export, or island the site.

Wind + solar battery storage
Generation

Wind turbines and solar arrays produce power together, then cover each other's quieter periods.

Storage

The battery bank holds surplus energy for evening demand, calm conditions, and fast backup.

Controller

An intelligent controller balances facility loads, utility exchange, battery health, and island mode.

Facility load

Your critical equipment stays powered while the system transfers away from a failed utility feed.

Designed around wind

Why a Wind-Centric Microgrid?

Solar starts the day. Wind often carries the system after sunset and during unsettled weather.

24/7 Production

Wind can produce at night and during storms, filling the hours solar cannot cover.

Storm Hardening

Turbines can shut down rapidly in dangerous conditions, then return when operating limits are met.

Lower Lifetime Cost

A strong wind resource can deliver a higher capacity factor than solar alone at suitable Florida sites.

Sustainability Premium

Visible wind generation gives customers and staff a clear sign of your renewable commitment.

Applied in the Southeast

Microgrid Project Profiles

Medical clinic with rooftop solar and nearby wind turbine in Broward County after a storm
Healthcare | Broward County

Critical care stays online

A clinic used wind generation and battery storage to maintain essential power through Hurricane Ian.

Discuss a healthcare site
Homestead farm irrigation equipment powered by wind, solar panels, and battery storage
Agriculture | Homestead

Irrigation costs fall

An off-grid wind-solar-battery system helped a farm cut irrigation costs by 45 percent.

Plan an agricultural system
Tampa data centre with wind turbine, solar canopy, and battery enclosure supporting operations
Data centres | Tampa

Uptime has a second line

A colocation facility reached 99.999 percent uptime with a hybrid microgrid supporting its core loads.

Review a data centre site

A clear four-phase plan

Your Microgrid Plan

Good design starts with your actual load profile. We size the system around it.

Most assessments begin with site data and a working-load review.
Phase 1: Assessment

We review interval demand, outage priorities, utility tariffs, and site wind and solar resources.

Phase 2: Engineering

We set the turbine size, PV array, battery capacity, controls, and islanding strategy.

Phase 3: Construction

Our installation plan protects your daily work and coordinates equipment, permits, and utility interfaces.

Phase 4: Commissioning and Training

We test transfer sequences, confirm operating limits, and train your team before hand-off.

Make the numbers practical

Calculate Your Microgrid Savings

Set a few operating assumptions to frame payback, demand reduction, and avoided emissions. A detailed financial proposal follows site validation.

Get a Detailed Financial Proposal
Illustrative cumulative value Years 1–10
Year 1 Year 5 Year 10

Planning figures only. Final savings depend on tariffs, wind resource, load shape, equipment selection, incentives, and financing.

Ready for stronger energy resilience?

Ready for True Energy Independence?

Talk with H.R. Current about a conceptual design and site-specific savings estimate.

+1 847 286 9881 info@hrcurrent.com Davie, Florida 33325