Driverless premium rides are moving closer to commercial reality.
HOUSTON, United States | June 2026
Uber is preparing a new generation of electric robotaxis developed with luxury electric-vehicle manufacturer Lucid and autonomous-driving specialist Nuro. The companies plan to launch a premium driverless service in the San Francisco Bay Area before the end of 2026, followed by Houston in mid-2027. The project combines Lucid’s Gravity electric SUV, Nuro’s autonomous-driving platform and Uber’s ride-hailing network. Together, the three companies want to make vehicles without human drivers part of everyday urban transportation.
Houston will become the second American market for the program after San Francisco. Uber is already testing vehicles on public roads in the Texas city, although trained safety operators remain behind the wheel during the current validation phase. Additional trials are taking place on closed courses and through computer simulations. These controlled stages are intended to expose the system to complex traffic situations before passengers are allowed to travel without a driver.
The first testing fleet consists of approximately 100 robotaxis. That number is expected to increase as Lucid begins producing the initial commercial units at its manufacturing plant in Arizona. The vehicles will be prepared specifically for autonomous operation rather than adapted only after leaving the factory. This integration should allow sensors, computing systems and vehicle controls to work as a unified platform.
The Lucid Gravity will serve as the physical foundation of the service. It is a fully electric sport utility vehicle designed to provide substantial interior space, long-range capability and a premium passenger experience. For robotaxi operations, the SUV will carry high-resolution cameras, radar units and solid-state lidar sensors. These technologies allow the vehicle to observe traffic, measure distances and identify objects from several directions simultaneously.
Cameras provide detailed visual information such as lane markings, traffic lights, pedestrians and road signs. Radar performs reliably across different weather and lighting conditions while measuring the speed and position of surrounding vehicles. Lidar creates a three-dimensional representation of the environment by sending laser pulses and analyzing their reflections. Combining the three systems gives the autonomous platform multiple sources of evidence before it makes a driving decision.
Nuro will provide the software and artificial-intelligence systems that interpret this information. The company originally focused on small autonomous delivery vehicles before changing its strategy in 2024. It now licenses autonomous-driving technology to vehicle manufacturers and mobility companies instead of concentrating exclusively on its own delivery robots. The Uber partnership gives Nuro an opportunity to deploy its system across a large commercial passenger fleet.
Uber will manage the vehicles, passenger service and daily operational experience. Users are expected to request the robotaxis through the familiar Uber application rather than using a separate platform. The company will also control vehicle allocation, trip support and interactions between passengers and the automated system. This role allows Uber to remain the customer-facing operator while relying on external partners for the vehicle and driving technology.
Some Uber employees in San Francisco have already been able to request the autonomous Lucid vehicles as part of internal testing. The cars still operate with human supervision, but the program has moved closer to removing the safety driver. California’s Department of Motor Vehicles recently granted authorization allowing the companies to advance toward fully driverless testing. Additional regulatory approvals will still be required before commercial passengers can use the service without human supervision.
Uber is also building the physical infrastructure needed to sustain the fleet. In Houston, the company has established an operations center covering approximately 50,000 square feet. The site includes a dedicated charging station for the future robotaxis. It will support maintenance, cleaning, inspection, recharging and the daily coordination of vehicle movements.
This infrastructure is essential because autonomous fleets require different operating systems from privately owned cars. Vehicles may remain in service for long periods and must be monitored continuously for software, sensor and mechanical problems. Charging schedules must be coordinated with passenger demand so that too many vehicles are not removed from service at the same time. Centralized facilities can also provide remote assistance when a robotaxi encounters an unusual situation.
The agreement represents a major financial commitment from Uber. The company plans to invest $500 million in Lucid and acquire at least 35,000 vehicles configured for robotaxi use. Uber has also invested approximately $500 million in Nuro. These commitments indicate that the partnership is intended to become a large-scale commercial operation rather than a limited experiment.
For Lucid, the project offers a path to expand production in an electric-vehicle market dominated by larger competitors. Supplying tens of thousands of vehicles to Uber could stabilize demand and increase use of the Gravity platform. It also gives the manufacturer visibility in a sector where autonomous mobility may become an important source of future sales. The challenge will be producing enough vehicles while maintaining quality and controlling costs.
Uber’s strategy places it in direct competition with Waymo, which already operates commercial robotaxi services in several American cities. Waymo has established a significant technological and regulatory advantage through years of testing. Tesla is also pursuing autonomous ride-hailing through its own vehicles and artificial-intelligence systems. Uber must therefore prove that its partnership model can expand faster than companies developing most of the technology internally.
The decision to rely on multiple specialized partners reflects Uber’s history with autonomous driving. The company once developed its own self-driving division but later sold that business and shifted toward alliances with external technology providers. Its current strategy is to become the platform connecting passengers with different autonomous fleets. That approach reduces the need to build every technical component while preserving control of the customer relationship.
Significant challenges remain before the service becomes routine. Autonomous vehicles must handle unpredictable pedestrians, road construction, emergency vehicles and unusual weather conditions. Regulators will demand evidence that the system can operate safely without a human driver. Passengers must also trust a vehicle that makes decisions without anyone sitting behind the wheel.
Uber’s robotaxi program brings together electric mobility, advanced sensors and artificial intelligence within a single commercial service. The first deployments in San Francisco and Houston will test whether the technology can move beyond demonstrations into dependable daily transportation. Success would allow Uber to expand the model into dozens of cities over the coming years. The future of ride-hailing may no longer depend on finding a nearby driver, but on dispatching an electric vehicle capable of driving itself.
Mobility changes when technology becomes invisible. / La movilidad cambia cuando la tecnología se vuelve invisible.