Autonomous Fleets · 2026

Autonomous vehicles are autonomous everywhere except at the plug.

Every scaled robotaxi fleet in 2026 charges at a depot where a person connects the cable. What actually delays an autonomous vehicle (AV) city launch is never the robot — it’s the utility interconnection, the switchgear lead time, and the permit. Faith Energy self-performs exactly that scope: the electrical infrastructure that is 70–90% of what a charging depot costs.

0 MWsite load at one deployed 38-port urban robotaxi depot
0 portsDC fast charging at that single San Francisco depot
52–80 wkscurrent medium-voltage switchgear lead times
70–90%of depot project cost is electrical infrastructure — our scope

The State of Play

How autonomous fleets actually charge in 2026.

Not concept art — the deployed reality. Vehicles drive themselves to the bay; people plug them in. The infrastructure underneath is conventional, high-density DC fast charging (DCFC), built by electrical contractors.

OperatorCharging model todayDeployed scale (public examples)
WaymoVehicles self-drive to depot bays; technicians plug inSan Francisco depot: 38 DCFC ports ≈ 2.4 MW site load; depots operated with fleet partners across 14 metros
Tesla robotaxiFleet-only Supercharger sites — cables, not wireless, despite inductive plansAustin site permitted at 2,500 kVA / 4,000 A switchboard / 24 posts
ZooxPurpose-built vehicles; staff-handled overhead-suspended cables at company depotsLas Vegas commercial service; San Francisco
Uber-partnered fleetsDedicated depots with charging “pit stops” under construction50,000 sq ft Houston depot targeted for early 2027; $100M+ committed to fast-charging hubs
Autonomous truckingDiesel — no autonomous-electric truck deployment announcedMegawatt charging (MCS) is advancing for human-driven e-trucks separately

Figures from public permits, operator disclosures, and press reporting, current September 2026. Fleet counts and site details change quickly; we review this page as part of our monthly data refresh.

The Four Launch Gates

What actually decides whether a depot opens on time.

Fleet launches are announced by the quarter. These four items run on utility, factory, and courtroom timelines — and they are all electrical-contractor scope.

1 · Utility interconnection

New multi-megawatt service commonly takes 12–36 months. The mitigations are engineering, not hope: capacity screening before site selection, flexible-interconnection strategies, load management to launch inside existing service, and phased energization. Our in-house engineers run utility applications as a deliverable with dates — not a caveat.

2 · Equipment lead times

Medium-voltage switchgear is quoting 52–80 weeks; transformers similar. At those numbers, procurement sequencing is the schedule: gear gets ordered at contract signing against engineered one-lines, not after design freeze. We carry that sequencing responsibility because we produce the drawings and buy the gear.

3 · Permits that survive operation

A California city forced a robotaxi operator off two permitted charging sites in 2026 over overnight noise and lighting from 24/7 operations. The defense is designed in: acoustic treatment, full-cutoff shielded photometrics (we self-perform lighting design), equipment siting away from residential lines, and conditions negotiated before the first complaint.

4 · Uptime with nobody standing there

A dead dispenser at a driverless depot has no driver to report it. Unattended sites need monitored charging, preventative maintenance, and a service organization with response commitments — the operating model behind our charger service programs, across every major hardware brand.

Automation-Ready by Design

Build the 2026 depot so the 2027 robot doesn’t need a trench.

Robotic plug-in systems are piloting now, with large-scale robotaxi rollout targeted for 2027; inductive charging is pre-commercial but advancing. The contractor’s insight: provisioning for both during initial construction costs almost nothing — retrofitting an energized depot means saw-cut slabs and rebuilt bays. We design the provisions in as standard practice.

UTILITY SERVICE TRANSFORMER MV/LV SWITCHGEAR DCFC DCFC DCFC ROBOT POWER + DATA + RAIL IN-SLAB STUBS FOR INDUCTIVE BAY GEOMETRY + SPARE FEEDER
Automation-ready provisions (highlighted) added at build time: service power, data pathways, and structural allowance for rail-mounted robotic connection at each bay; in-slab conduit and pad stubs for future inductive charging; bay geometry and spare feeder capacity that tolerate retrofit.
The part with the lead time

Utility service, transformer, and switchgear are 70–90% of depot cost and carry 12–36 month interconnection and 52–80 week gear timelines. Ordered at contract signing against our engineered one-lines — that sequencing is the schedule.

Hardware Truth Table

What’s real, what’s piloting, what isn’t — September 2026.

Credible planning starts with deployed reality. As an authorized reseller and certified installer across 13 charging brands, we have no box to sell you into — so this table can be honest.

Cabled DC fast charging — deployed

The workhorse of every operating autonomous fleet. Depots are already brand-mixed in the field, which is why hardware-neutral specification against the fleet’s duty cycle — dozens of short sessions per bay per day — matters more than any logo.

Robotic plug-in — piloting, scaling 2027

Overhead-rail robotic arms that open the port and connect a standard cable are in pilot deployments, with a large-scale robotaxi rollout announced for 2027. Needs per bay: modest service power, data, and structural allowance — exactly what automation-ready design pre-provisions.

Inductive (wireless) — pre-commercial

Regulatory hurdles are clearing and fleet-focused development is accelerating, but no scaled fleet charges wirelessly today — even the vehicle designed around it is charging by cable at its fleet sites. Provision the slab; don’t bet the launch on it.

Pantograph — mature, wrong segment

Automated overhead connection is standardized and proven — for transit buses. Roof-mounted sensor pods make it a poor fit for light-duty robotaxis. We note it because engineering credibility means knowing where a technology doesn’t belong.

Who We Work For

The fleet is the client’s. The megawatts are ours.

Depot programs are procured by charging owner-operators, fleet-management companies that have taken on charging obligations, mobility platforms funding their own hubs, and autonomous vehicle operators directly — often across a dozen markets at once. Faith Energy serves that buyer with one accountable package: in-house engineering and utility applications, self-performed construction from service to plug, equipment supply across 13 brands, and 24/7 service programs for unattended sites — repeatable in every metro where the fleet lands next.

Talk to a depot engineer

Straight Answers

Autonomous vehicle charging, answered plainly.

How do robotaxis charge today?
At depots, by cable, with a person connecting it. Vehicles drive themselves to an open bay; a technician plugs in. Robotic connection is piloting with scale expected in 2027; wireless remains pre-commercial. The infrastructure underneath is conventional high-density DC fast charging — which is why the schedule risk lives in interconnection, switchgear, and permits.
How much power does a depot need?
Deployed examples run roughly 2.4 MW for a 38-port urban depot, 2,500 kVA for a 24-post fleet site, and purpose-built sites in development reach 6 MW on under an acre. Above a few megawatts, utility timelines of 12–36 months and 52–80-week switchgear lead times gate everything — procurement sequencing is the schedule.
Can an existing parking structure become a depot?
Often — real fleet depots today include rooftop parking decks and retrofitted urban lots. The constraints are structural loading, feeder routing, ventilation, and acoustic/lighting design for 24/7 operation. Retrofit judgment is a design-build skill; we bring the engineers and the crews from the same company.
What should be provisioned now for charging automation?
Per bay: a modest service circuit and data pathway for a rail-mounted robotic arm, structural allowance for the rail, in-slab conduit stubs where inductive pads could land, and bay geometry that tolerates the retrofit. Designed in during construction, the cost is minor; added later, it’s saw-cutting an operating depot.
Who is accountable for uptime at an unattended site?
Whoever holds the service contract — and at a driverless depot there is no driver to report a fault. Our service programs pair 24/7 monitoring with preventative maintenance and repair across all major charger brands, with the documentation fleet operators and their partners require.

Next Step

Launching a fleet city? Start with the power question.

Send us the market, the fleet profile, and the candidate parcels. Our engineers return the capacity screen, the utility path, the gear sequencing, and a depot design that’s ready for the robots when they arrive.

Email usStart project review