Automated-Driving Systems in the Real World: 2026 Field Guide

The automated-driving market in July 2026 is not one race: consumer Level 2 systems assist an attentive driver, production Level 3 systems permit eyes-off use in narrow conditions, and Level 4 fleets carry passengers without a driver inside defined service areas. This field guide uses representative systems with public product or operating evidence, with availability varying by country, vehicle, hardware and software version.

Supervised Level 2 in private vehicles

Level 2 is the broadest consumer category. The system can steer and control speed together, but the human must monitor the road continuously.

The category now spans two distinct product shapes. Motorway systems concentrate on predictable, access-controlled roads and may permit hands-free use. Point-to-point systems attempt a navigation route across motorways and city streets, including turns and traffic-controlled intersections. The second is broader, but it is not a higher SAE level while the driver still performs continuous supervision and fallback.

Tesla Full Self-Driving (Supervised)

Tesla describes FSD (Supervised) as an advanced driver-assistance suite that attempts to drive to a destination across residential streets, city roads and highways. It follows route forks, changes lanes, makes turns, navigates roundabouts and negotiates intersections.

Tesla’s owner documentation says the feature slows and stops at traffic lights and stop signs as necessary. It also warns that the system may fail to stop or resume correctly and that the driver must determine whether it is safe and legal to proceed.

This combination makes FSD (Supervised) a leading example of point-to-point Level 2, not an autonomous consumer car. Tesla explicitly requires active supervision and states that the feature does not make the vehicle autonomous. Capability varies with region, vehicle configuration, hardware, model year and software.

Point-to-point urban assistance is a multi-company market in China.

XPENG describes City Navigation Guided Pilot as assisting with traffic-light intersections, overtaking, speed adjustment and roundabouts on supported urban roads. NIO’s 2026 Point-to-Point Navigate on Pilot Plus combines lane selection and interaction with surrounding traffic, with related software linking parking areas and urban navigation. Huawei says ADS 3.0 Navigation Cruise Assist can provide one-tap cruising across public and internal roads to a destination parking area. Li Auto reported deploying a one-click point-to-point feature to Li AD Max users.

These products are not interchangeable. Their road coverage, vehicles, sensors, software, driver-monitoring rules and market availability differ. Manufacturer use of “autonomous,” “ADS,” “pilot” or “end-to-end” also does not determine the SAE level; the documented human role does.

Their existence matters because city route execution is no longer a Tesla-only proposition. Chinese developers have made urban NOA a major consumer battleground, while many alternatives in Europe and North America still focus primarily on selected motorways.

GM Super Cruise

Super Cruise provides hands-free Level 2 operation on compatible mapped roads in North America. It combines adaptive cruise and lane control with precision map data and a camera-based driver-attention system.

GM reported in April 2026 that customers had accumulated one billion hands-free miles across nearly 750,000 enabled vehicles. That is evidence of consumer use and exposure, not by itself a crash-safety comparison. The driver must still watch the road.

Ford BlueCruise

BlueCruise is a hands-free, eyes-on Level 2 motorway system. A driver-facing camera monitors gaze and head position, and the driver must be ready to take control.

Ford states that the system operates on designated Blue Zones in supported markets. The feature’s road coverage and vehicle availability differ between North America and Europe, so buyers should check the exact local product.

BMW Motorway Assistant

BMW’s Level 2 Motorway Assistant permits extended hands-free use on supported divided motorways while the driver remains attentive. On supported models, a suggested lane change can be confirmed through the driver’s gaze.

BMW is a useful example of why a vehicle cannot be assigned one permanent level: the 7 Series can combine this Level 2 feature with a separate Level 3 feature in Germany.

FSD approval in Europe: what was actually approved

Europe generally requires approval before a vehicle system enters service, unlike the US system of manufacturer self-certification followed by in-use enforcement. An approval applies to the assessed European function, vehicle and conditions—not automatically to a differently configured US software release.

On 10 April 2026, the Netherlands Vehicle Authority, RDW, granted Tesla FSD (Supervised) a European type approval with provisional validity in the Netherlands. RDW classifies it as a driver-controlled assistance system: the driver remains responsible, must monitor traffic and must be able to take over immediately. RDW also states that the European and US versions are not directly comparable.

That decision was not blanket EU-wide approval. RDW explained that wider validity requires submission to the European Commission, a vote by member states and majority support in the responsible committee. Individual countries can separately consider provisional recognition while that process runs.

The case demonstrates three distinctions:

approval of a Level 2 feature does not turn it into autonomous driving;
approval in one territory does not prove authorization across Europe; and
an approved European version does not validate every feature bearing the same product name elsewhere.

Regulatory status can change faster than vehicle hardware. Buyers should therefore verify the current national authorization and exact software release instead of relying on a general announcement that “FSD is approved in Europe.”

Production Level 3: eyes-off inside a narrow domain

Level 3 performs the complete driving task while engaged, but expects a fallback-ready user to respond when requested. Market approval and the exact operating domain are part of the product.

Mercedes-Benz DRIVE PILOT

Mercedes-Benz received German approval for DRIVE PILOT operation up to 95 km/h under specified conditions on the German Autobahn network. The company offers the feature on the S-Class and electric EQS.

The approved function is conditional, not universal. Road, traffic, environmental and vehicle conditions determine availability. The user can divert attention to permitted activities while the system is active but must respond to a takeover request.

BMW Personal Pilot L3

BMW Personal Pilot L3 is offered for the 7 Series, including i7 variants, in Germany. It supports Level 3 operation at up to 60 km/h on approved motorway sections and can operate in darkness.

BMW pairs it with the Level 2 Motorway Assistant. The Level 2 feature can cover higher-speed motorway driving but remains eyes-on; Personal Pilot has a narrower domain but changes who monitors the road.

These systems show why capability cannot be ranked by maximum speed or mapped distance alone. Level 3 is defined by the driving role and fallback, then bounded by its domain.

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Level 4 services: driverless within a service area

Level 4 removes the need for a driver inside its operating domain. The commercial product is an operating system that includes vehicles, mapping, fleet maintenance, charging, remote assistance and incident response.

Waymo

Waymo provides public, rider-only service in multiple US metropolitan areas. Its current service information lists direct or partner-operated rides in markets including Phoenix, the San Francisco Bay Area, Los Angeles, Austin, Atlanta, Miami, Orlando, Dallas, Houston, Nashville and San Antonio.

The service is Level 4 within its approved areas, not Level 5. Waymo’s operating map continues to expand, but the system remains bounded by geography, supported roads, environmental conditions and fleet operations.

Waymo publishes rider-only distance and crash-rate comparisons on its Safety Impact dashboard. Through March 2026, the dashboard reported 220.6 million rider-only miles across the locations then included in its benchmark analysis. The company reported lower rates than its adjusted human benchmark for several injury and airbag-deployment outcomes. The methodology, geographic mix and company authorship should remain visible when citing those results.

Baidu Apollo Go

Baidu operates Apollo Go robotaxi services in China and has expanded testing and operations internationally. In its first-quarter 2026 results, Baidu reported 3.2 million fully driverless operational rides during the quarter, more than 22 million cumulative public rides by April and a footprint of 27 cities by May.

Those figures are company-reported operating metrics. Baidu also reported more than 220 million fully driverless kilometres. Cross-company comparisons require caution because definitions of ride, kilometre, service area, reporting threshold and safety outcome may differ.

The strongest conclusion is not that one operator has “won.” It is that bounded Level 4 service is a commercial reality in several markets while remaining an operated fleet product rather than a privately owned vehicle that can drive everywhere.

Why product names mislead

“Autopilot,” “Full Self-Driving,” “Pilot,” “Assistant,” “NOA” and “Super Cruise” do not determine the SAE level. Hands-free operation and point-to-point route completion do not determine it either.

Use this comparison order:

Human role: eyes-on driver, fallback-ready user or passenger?
ODD: which geography, roads, speeds, weather and light?
Fallback: who manages a limit or failure?
Approval: type approval, operating permit, supervised test or commercial service?
Evidence: usage, test results, crash outcomes and reporting method?
Commercial terms: exact model, hardware, software, country and subscription?

An announced feature is not a deployed feature. A supervised public-road test is not a driverless service. A driverless employee ride is not necessarily open public operation.

What a leading system should disclose

A credible system description should state the exact level and user role, the domain, exclusions, fallback, driver-monitoring design where applicable, vehicle and software scope, regulatory status and evidence of in-service performance.

Consumer Level 2 should be judged heavily on supervision safeguards and predictable behavior at complex controls, not only on whether it completes a route. Level 3 should be judged on domain detection and transition management. Level 4 should be judged on the whole safety case and operation, including how the operator reports incidents and expands to a new domain.

This article is dated because deployments change. EVKX will update the system examples when approvals, operating areas or public evidence materially change.