Level 2 EV Charger Installation in Orlando, FL

Level 2 charging runs at 240 volts across a wide power band — 3.8 to 19.2 kilowatts under the SAE standard. The home units sold for Orlando garages are usually 7.7 kilowatts (32 amps), 9.6 kilowatts (40 amps), or 11.5 kilowatts (48 amps), adding roughly 25 to 45 miles of range per hour depending on the car.

Yes. The Tesla Wall Connector is a Level 2 charger: 240-volt AC charging at up to 48 amps (11.5 kilowatts) on a 60-amp circuit, the top of the normal home range. Tesla's smaller Mobile Connector is also Level 2 when plugged into a 240-volt outlet, at lower amperage. Neither is DC fast charging — that is Level 3, a commercial technology.

Output and circuit size. A 40A charger (on a 50A breaker) delivers about 9.6 kW — roughly 30–37 miles of range per hour. A 48A charger (on a 60A breaker) delivers about 11.5 kW — roughly 35–44 miles per hour. The 48A unit needs more panel capacity. For many drivers the real-world difference is small — both fill the car overnight — so panel capacity often decides.

Roughly 25–44 miles per hour depending on amperage and your EV's efficiency: ~25–30 on a 32A charger, ~30–37 on 40A, ~35–44 on 48A. Larger, less efficient EVs (electric trucks and SUVs) sit at the lower end of each range; efficient sedans at the higher end.

Typically 4–10 hours from near-empty, depending on battery size and charger amperage. A 60 kWh battery on a 48A charger takes about 6 hours; a 130 kWh truck battery on a 32A charger takes closer to 18. In practice you rarely charge from zero — topping up the day's 40–60 miles takes 1–2 hours overnight.

Only if your commute is short. Level 1 adds ~3–5 miles per hour — about 40–50 miles over a full night. If you consistently drive under 40 miles a day and can charge 10+ hours nightly, it works. Beyond that, you'll slowly fall behind and end up at public chargers. Most Orlando commuters outgrow Level 1 within weeks of EV ownership.

We don't recommend it. Dryer receptacles aren't designed for the sustained multi-hour loads of EV charging — the receptacle, not just the breaker, is the weak point, and overheated dryer outlets are a documented fire cause. A UL-listed dryer-splitter device exists for sharing, but it's a stopgap. A dedicated circuit is the correct answer.

It can — this is a well-known issue with NEMA 14-50 plug-in setups. Current code requires GFCI protection on 50A garage receptacles, but EV chargers have sensitive electronics that can trip GFCI breakers spuriously. Hardwired chargers avoid the problem entirely (the charger has its own internal GFCI). If you go plug-in, we use spec-grade receptacles and correct breaker pairing to minimize it.

The process starts with a load calculation on your electrical panel to confirm spare capacity and choose the charger amperage. Then a dedicated 240-volt circuit is run from the panel to the charger location, the charger is mounted and either hardwired or plugged into a NEMA 14-50 outlet, and the permit inspection confirms the work. Finally the charger is configured — amperage setting, Wi-Fi, and scheduled off-peak charging — and tested with your car. In Florida this electrical work belongs to a qualified electrician; see our DIY vs professional installation guide for what is and is not safe to do yourself.

Five things, in order: the load calculation that sizes the job to your panel; the dedicated 240V circuit run from panel to parking spot; the charger itself, mounted and either hardwired or paired with an industrial-grade NEMA 14-50 outlet; the permit and inspection; and configuration — amperage set to the circuit, Wi-Fi paired, off-peak scheduling set, and a supervised first charge with your car. If the calculation says your panel needs work first, that is quoted separately and honestly before any of it. What it never includes is a number invented before anyone has seen your panel.