What is Solar Ballet?
Solar Ballet is ABC Solar’s way of describing solar design as choreography: panels, inverters, batteries, protected loads, utility power, timing, appearance, and daily life moving together as one system.
FAQ
Solar Ballet is about making solar, batteries, backup power, and energy design easier to understand. The system should be elegant, but the answers should be direct.
Start here
Before choosing panels, batteries, or inverters, the system needs a clear purpose: savings, backup, resilience, beauty, off-grid performance, or all of the above.
Common questions
Practical answers for homeowners, businesses, and anyone thinking seriously about solar plus battery backup.
Solar Ballet is ABC Solar’s way of describing solar design as choreography: panels, inverters, batteries, protected loads, utility power, timing, appearance, and daily life moving together as one system.
It is a design idea and concept site. The equipment still has to be selected for the actual home or business. The point is to design the performance before buying parts.
Solar panels produce during daylight. Batteries store energy for evening use, high-cost utility periods, and backup power when the grid fails.
Standard grid-tied solar usually shuts down during an outage for safety. Solar can support backup operation when the system is designed with the right inverter, battery, isolation, and protected-load strategy.
Critical loads are the circuits selected to stay powered during backup operation. Common examples include refrigeration, internet, phones, lighting, security, garage access, medical equipment, and selected comfort loads.
Sometimes, but whole-house backup requires careful sizing of solar, batteries, inverters, and large loads. Many strong designs begin with essential-load backup because that protects what matters without draining the battery too fast.
It depends on battery capacity, the loads being powered, weather, solar recharge, inverter behavior, and owner discipline. A refrigerator and router are different from air conditioning, cooking equipment, EV charging, or electric heating.
It can when the system is designed for that behavior. The details depend on the inverter, battery system, solar array, settings, and how the protected loads are configured.
Off-grid performance means the system can operate without utility power, within its design limits. It requires honest load planning, enough solar production, enough battery storage, and inverter capacity matched to the loads.
Deep energy independence is possible in some cases, but it should not be treated casually. A true off-grid plan must account for seasonal production, cloudy days, nighttime loads, large appliances, battery reserve, and possible generator support.
Batteries store energy, but the inverter determines how much power can be delivered at one time. Large loads, motor starts, HVAC, pumps, and multiple simultaneous loads require careful inverter planning.
A clean design is easier to understand, inspect, service, and trust. Panel layout, conduit routing, battery placement, labels, and service access all affect the finished system.
Sometimes. Expansion depends on roof area, inverter capacity, battery compatibility, electrical service, utility rules, code requirements, and how much room was left in the original design.
Useful information includes your utility bill, address, main electrical panel location, roof details, photos of the electrical area, backup priorities, and a list of loads that must keep running during an outage.
Quick paths
Start with what must keep running, then plan the battery, inverter, and protected loads.
The house has a rhythm. Solar should follow the way the household actually lives.
Beautiful solar is practical: clean layout, service access, clear equipment, and visual order.
Off-grid performance is production, storage, inverter capacity, and load discipline.
Business power planning has to account for operations, downtime, bills, and critical circuits.
See how panels, inverters, batteries, loads, and the grid work together.
Ask the next question
The right answer depends on the building, the loads, the utility bill, the roof, the battery goal, and the blackout expectation. Start there.