Can anyone open a Tesla Supercharger station? Who qualifies, the process, and the numbers

For most of the Supercharger network's history, the answer was no — Tesla built, owned, and operated its own sites, and a landowner's only role was signing a ground lease. The Supercharger for Business program changed that: property owners and businesses (typically through an LLC) can now purchase Supercharger hardware and own the site — the equipment, the utility relationship, and the economics.

So the short answer is: yes, with a property. The longer answer — what the path involves, how the money flows, and what the numbers look like — is what this post walks through.

Who the program fits#

The gating asset is real estate, not a franchise agreement. The candidates the economics tend to select for:

• A site with the right traffic — highway-adjacent parcels, retail with dwell time, or locations in charging deserts where the station map runs thin.
• Power, or a path to it — a multi-stall site is a megawatt-class electrical load. Proximity to utility capacity decides both cost and timeline.
• An owner structured as a business — sites are typically held in an LLC, which is also how the tax lines (and there are several before income tax) attach.

The process, stage by stage#

The sequence is consistent even where the durations aren't:

1. Configurator estimate. Tesla's Supercharger for Business configurator produces the initial hardware quote and revenue sketch. One caution the rest of this site exists for: the configurator is a sales tool, and its defaults are calibrated accordingly.
2. Site review. Tesla evaluates the parcel — traffic, layout, spacing against the existing network.
3. Utility service application. The long pole in most builds. A new megawatt-class service means a utility engineering study, possibly a new transformer or line extension, and a queue that moves on the utility's clock, commonly measured in months and in some territories longer than construction itself.
4. Permitting. Local electrical and building permits; timelines vary by jurisdiction from weeks to months.
5. Construction and energization. Trenching, switchgear, stall installation, utility cutover, commissioning onto the Tesla network.

A realistic mental model for the whole path is measured in months to a year-plus, dominated by stages 3 and 4 — and both are outside the owner's control, which is why they deserve more diligence than the hardware line.

How the ownership model works#

The owner buys and owns the equipment, signs the utility account, and receives the charging revenue. Drivers pay through the Tesla app at the site's per-kWh retail price; Tesla operates the network layer and charges the site a per-kWh network fee — the model carries $0.10 per kWh as its default. The owner's side of the ledger:

• Revenue: dispensed kWh × retail price (the model's default calibration uses $0.45/kWh).
• Costs: the utility bill — energy and demand charges — plus the network fee, rent (if the land isn't owned outright), insurance, maintenance reserves, and the tax stack.

One asymmetry worth knowing on day one: the site sells the kWh cars receive but buys the kWh the utility meters, and the gap runs about 13.6% at the model's default loss factor.

What the numbers look like#

Under the model's default calibration — an eight-stall V4 site — the build side stacks up like this:

Utility upgrade costs sit outside that table on purpose — they range from $0 to six figures depending entirely on the site's existing service, which is why the model carries them as their own input.

On the operating side, the default "Standard" ramp reaches about 235 kWh per stall per day by month twelve — roughly 6–7 charging sessions per stall — which at eight stalls is about 686,000 kWh a year. At the default retail price that is roughly $300,000 of annual gross revenue, against which the utility bill, the network fee, rent, and the tax lines all bite. Whether what remains clears the cost of capital is precisely the question a 15-year cash-flow model exists to answer — and the honest answer is that it varies enormously by site and by tariff. The same eight stalls can pencil in one utility territory and sink in the neighboring one on demand charges alone.

The homework the configurator doesn't assign#

Three checks that move the answer more than anything on the quote:

1. The tariff, before the letter of intent. Which rate the site lands on — and whether the state files an EV-specific rate — is the largest operating-cost decision, and it is knowable in advance from the filed tariff library.
2. The interconnection conversation, early. A call to the utility about available capacity at the parcel costs nothing and can save a year.
3. The full cost stack, not the hardware line. Every line, walked in order — because the quote is the most visible number and rarely the decisive one.

The model behind this site runs that full stack — tariffs, taxes, financing, ramp, and sensitivity — for 49 states and DC, with every default shown and every slider movable. The configurator says what a site could earn; the model's job is to show what the same site pays.