Whether you are starting with a new solar array or adding storage to panels you already own, the best result begins with one plan for generation, backup priorities, electrical integration, permits, controls, and commissioning.
No generic runtime promises. We size and configure the system around your home, equipment, and backup goals.
Choose the path that matches your property today. Both begin with your backup priorities and an electrical compatibility review—not a one-size-fits-all equipment package.
Plan the solar array, battery, backup equipment, and electrical work together from the beginning.
Start with the system you own. We review the existing array, inverter, monitoring, electrical service, and interconnection before recommending a storage approach.
A useful design conversation begins with the loads that matter to your household. Battery capacity, power output, solar production, equipment limits, and the home's electrical configuration all affect what can operate and for how long.
Identify the loads you consider essential, such as refrigeration, selected lighting, communications, well equipment, medical needs, or heating-system controls.
Air conditioning, electric heat, cooking equipment, pumps, and EV charging can materially change power and storage requirements. We review them rather than assume.
Discuss outage priorities, battery reserve preferences, expected manual decisions, and whether future solar, EV charging, or electrification should be considered now.
Technical basis: U.S. Department of Energy guidance explains that backup duration depends on stored energy, supported loads, and available sunlight. No fixed runtime is promised without a project-specific assessment.
Most grid-connected residential solar systems shut down when the grid is out. Backup requires a properly configured system that can safely isolate from the utility and coordinate the solar, battery, inverter, transfer or control equipment, and selected home loads.
Source: U.S. Department of Energy, “Solar and Resilience Basics.”
Our role is to connect the homeowner's goals to a buildable, permitted electrical system. Final equipment and scope depend on the site assessment, proposed design, manufacturer requirements, utility rules, and the authority having jurisdiction.
Review array location, production goals, inverter approach, shutdown requirements, routing, and how solar will interact with storage and backup controls.
Match usable storage and power capability to the selected backup scope, then coordinate gateways, controllers, transfer equipment, and monitoring.
Evaluate service capacity, panel configuration, grounding, disconnects, equipment locations, conduit routes, and any required backed-up-loads panel.
Identify the installed modules, inverter or microinverters, monitoring gateway, interconnection, warranties, and documentation before selecting a retrofit path.
Coordinate required design documents, permits, utility submissions, inspections, and permission to operate. Requirements and timing vary by location and utility.
Verify installation, startup, communications, operating modes, and homeowner handoff. Backup operation is checked against the approved system design.
Every project is different, but the decision process should be understandable.
We confirm the address, utility, current solar status, project path, and basic backup goals.
We document the roof or array, inverter, meter, service, panels, loads, equipment locations, and practical wiring routes.
We separate essential loads from larger discretionary loads and discuss future electrification plans.
We define the proposed equipment, electrical scope, responsibilities, exclusions, and project-specific assumptions.
Required approvals are coordinated before installation proceeds. Utility and jurisdiction requirements vary.
We start up and verify the installed system, confirm monitoring and operating modes, and review homeowner use.
One published EVCIA residential project combines a Ford Charge Station Pro, two 16 kWh LG batteries, existing Enphase solar equipment, and home electrical-service integration.
You do not need a finished design. These answers help us route the consultation and identify what should be reviewed first.
Often, yes—but the right approach depends on the installed inverter or microinverters, monitoring and control equipment, service configuration, available space, manufacturer requirements, and your backup goals. We begin with a compatibility and design review.
Not by itself in most grid-connected systems. Outage operation requires compatible solar, storage, controls, and isolation equipment configured for backup. The design must also define which loads the system will support.
No responsible answer comes from the battery name alone. Runtime depends on stored energy, battery settings, solar availability, conversion losses, and which loads are operating. We model the project around your priorities instead of offering a generic promise.
No. If you already have preferences, tell us. The site conditions, existing equipment, backup scope, manufacturer compatibility, and service requirements should inform the recommendation.
The project scope identifies the required permits, design documents, utility interconnection steps, inspections, and commissioning responsibilities. Requirements and schedules vary by utility and local authority.
We will review the initial information, confirm whether the project fits our service area and capabilities, and explain the next assessment step.
