Tag Archives: Mustang Mach-E

UK Enters the Robotaxi Era as Wayve Launches Self-Driving Ubers

The future of urban transportation has officially arrived in the UK. Uber users across London can now order a self-driving taxi, marking the country’s first commercial autonomous ride-hailing service.

The new service is the result of a partnership between ride-hailing giant Uber and British autonomous driving technology company Wayve. For the initial rollout, passengers may be matched with a driverless Ford Mustang Mach-E equipped with Wayve’s latest-generation AI Driver technology.

Although a trained human safety driver will initially occupy the front seat and supervise every journey, the launch represents a significant step toward fully autonomous taxis operating on London’s busy streets.

Wayve’s self-driving Ford Mustang Mach-E is now available through Uber

Unlike traditional taxis, Wayve’s autonomous Ford Mustang Mach-E does not rely on a conventional driver to control the vehicle. Instead, the car uses Wayve’s artificial intelligence-based autonomous driving system to interpret its surroundings, make decisions and navigate London’s roads.

Uber users ordering a ride anywhere across the capital can potentially be matched with one of Wayve’s autonomous vehicles. There is currently one important exception: the service does not operate from London’s airports.

The rollout follows Transport for London’s decision last month to grant Wayve’s vehicles a private hire licence, clearing the way for the company’s autonomous cars to begin carrying passengers commercially.

For Wayve, the launch is the culmination of extensive testing on London’s roads. The company has spent roughly a year testing its latest autonomous driving technology in real-world traffic conditions.

What makes Wayve’s AV 2.0 technology different?

Wayve calls its latest autonomous driving system “AV 2.0,” and the technology takes a different approach from many earlier self-driving systems.

Traditional autonomous vehicles have often relied heavily on detailed maps, predefined rules and extensive sensor hardware. Wayve’s system instead places artificial intelligence at the center of the driving process.

The AI Driver has been trained using data gathered from real-world driving and is designed to make decisions when it encounters situations it has not explicitly been programmed to handle.

That distinction could prove particularly important in a city like London.

The capital has an extraordinarily complex road environment, with narrow streets, cyclists, pedestrians, buses, motorcycles, delivery vehicles, temporary road closures and constantly changing traffic patterns. A self-driving system capable of responding to unfamiliar situations could have a major advantage over technology that depends heavily on predetermined instructions.

Wayve also claims that its AI-first approach can reduce the amount of expensive hardware required by autonomous vehicles.

Wayve aims to eliminate the need for heavily geofenced robotaxis

One of the most significant aspects of Wayve’s technology is its potential ability to operate outside tightly controlled geographical boundaries.

Many autonomous taxi services initially operate within relatively small geofenced areas where the vehicles have been extensively tested and mapped.

Wayve’s approach is designed to be more flexible.

Because the AI Driver can apply knowledge learned from years of real-world driving to new situations, the company believes its vehicles can potentially operate in unfamiliar environments without requiring every road to be extensively pre-programmed.

That technology is a key reason why Wayve can launch its Uber service across London rather than limiting the first deployment to a small section of the city.

The implications extend well beyond London. If the technology proves reliable at scale, autonomous vehicles could potentially be introduced into new cities more quickly and with less dependence on highly detailed geographic preparation.

What happens when you order a self-driving Uber?

For passengers, ordering a Wayve autonomous taxi is intended to be relatively straightforward.

The journey begins in the Uber app, just like a conventional ride. If a passenger is matched with an autonomous Ford Mustang Mach-E, the app provides the necessary instructions for accessing the vehicle.

Passengers can unlock the doors and begin the trip through the Uber application before taking their seats.

Inside the vehicle, a touchscreen allows passengers to monitor the journey and see information about the vehicle’s progress.

Despite the car being capable of driving itself, passengers will initially have a trained and TfL-certified safety driver sitting in the front.

The safety driver is there to supervise the autonomous system and intervene if necessary.

That human presence is temporary, however. Wayve has not yet confirmed exactly when its London vehicles will begin operating without a person in the driver’s seat.

Only 15 autonomous Mustang Mach-Es are operating in London

For now, passengers should not expect to see a Wayve self-driving taxi every time they open the Uber app.

Only around 15 autonomous Ford Mustang Mach-E vehicles are currently operating in London. Considering that Uber has approximately 100,000 vehicles operating in the capital, the odds of being randomly assigned one remain relatively low.

However, the small initial fleet is not intended to remain that way.

Wayve plans to expand its autonomous vehicle operation as it works toward its larger ambition of becoming a major global provider of autonomous mobility.

The London launch is therefore less about the number of vehicles on the road today and more about proving that autonomous ride-hailing can work in one of the world’s most complicated urban driving environments.

London is just the beginning for Wayve and Uber

The UK capital is the first of 12 cities included in Wayve and Uber’s planned global autonomous ride-hailing expansion.

The companies are expected to begin offering autonomous rides in Tokyo later this year, where modified Nissan Leaf electric vehicles will be used.

Uber has much broader ambitions of its own.

The company has said it wants to become the world’s largest facilitator of autonomous vehicle trips by 2029. It also plans to offer autonomous rides in 15 cities by the end of this year.

Importantly, Uber does not describe this future as one in which human drivers simply disappear.

Instead, the company envisions a “hybrid network” in which autonomous vehicles operate alongside conventional cars driven by people.

That could ultimately create a transportation system where passengers are matched with either a human-driven vehicle or an autonomous vehicle depending on availability, location, price and other factors.

For Uber, such a model could allow autonomous vehicles to supplement rather than completely replace its existing driver network.

Uber is expanding its autonomous vehicle partnerships

Wayve is not Uber’s only autonomous-driving partner.

The company has also partnered with Verne, the autonomous mobility subsidiary associated with Rimac, as well as Chinese robotaxi company Pony.ai.

Those partnerships form part of Uber’s broader strategy to build an autonomous mobility ecosystem rather than developing a single proprietary self-driving vehicle.

The approach could allow Uber to work with multiple autonomous vehicle manufacturers and technology companies in different markets.

Europe is already becoming an important testing ground for that strategy. Uber, Verne and Pony.ai recently announced plans to offer autonomous ride-hailing in Zagreb, Croatia.

Waymo is also preparing to launch self-driving taxis in London

Wayve and Uber may have reached the UK market first, but they are not alone in the race to bring autonomous taxis to London.

Google’s autonomous driving company Waymo has also been testing self-driving Jaguar I-Pace vehicles on London’s streets.

Waymo has been conducting testing in the capital for several months and is targeting a September launch for its own autonomous ride-hailing service.

However, the company’s London testing has already demonstrated one of the major challenges facing autonomous vehicles in real-world cities: not every problem can be solved in a laboratory.

Waymo was recently forced to adjust its routes after residents on a street in east London complained about vehicles repeatedly becoming stuck, reversing and sounding a loud warning siren during nighttime testing.

The incident highlights the unpredictable nature of deploying autonomous vehicles in densely populated urban environments.

A self-driving car may be able to navigate a complicated junction perfectly, yet still encounter unexpected challenges caused by road layouts, parked vehicles, pedestrians, construction or even the reaction of local residents.

Are self-driving taxis finally becoming mainstream?

The arrival of Wayve’s autonomous Ford Mustang Mach-E vehicles on Uber is an important moment for the automotive industry.

Self-driving technology has been tested for years, but commercial deployment remains one of the biggest challenges facing autonomous vehicle developers.

London presents a particularly demanding test.

Unlike purpose-built autonomous vehicle testing environments, the capital combines historic roads with modern traffic systems, unpredictable pedestrian behavior, cyclists, buses, construction zones and extremely dense urban traffic.

Successfully operating autonomous taxis in that environment could therefore provide valuable evidence about whether AI-based driving systems are ready to move beyond controlled demonstrations and into everyday transportation.

The biggest question is no longer whether autonomous vehicles can drive themselves under the right conditions. The more important question is whether they can reliably handle the enormous variety of situations encountered on ordinary city streets.

Wayve believes its AI Driver technology can do exactly that.

The future of London transportation is taking shape

For passengers, the first Wayve-powered Uber rides may feel like a novelty. For the automotive and transportation industries, however, the launch is considerably more significant.

The Ford Mustang Mach-E autonomous taxis now operating in London represent the beginning of a potentially much larger transition from human-controlled transportation toward AI-assisted and eventually fully autonomous mobility.

The technology still faces regulatory, technical and public-acceptance challenges. The presence of a safety driver during the initial phase demonstrates that fully driverless operation has not yet arrived in London.

But the direction of travel is clear.

Wayve and Uber have put autonomous ride-hailing into commercial service on one of Europe’s busiest and most challenging road networks. With more vehicles, additional cities and new autonomous-driving partnerships planned, the London launch could prove to be the first chapter in a much bigger transformation of how people move around cities.

For now, the next time a London Uber passenger sees a Ford Mustang Mach-E approaching, there is a chance there may be no one actually driving it.

Source: Autocar

Mustang Mach-E reached 916.74 km on a single charge

In April, Ford introduced a refreshed edition of its first all-electric crossover, the Mustang Mach-E, with a longer range than its predecessor. Now the car has achieved a truly remarkable result by traveling 916.74 kilometers on a single battery charge, a new world record for a production EV.

For this venture, Ford chose the Mach-E Premium Extended Range RWD driven by Kevin Booker and Sam Clarke. The plan was to cover as much distance as possible within 24 hours on one battery charge, and they chose the route of Norfolk, Lincolnshire, Yorkshire, Nottinghamshire, Leicestershire and Cambridgeshire. They wanted to simulate conditions in the real world, so they used urban and rural roads. They also used several methods to prove their success, including independently verified footage, watch readings, GPS data, and battery level information downloaded from Webfleet.

The car was equipped with a 91 kWh battery that provides a range of 600 kilometers (WLTP). However, in order to achieve the record, the team made a few changes, such as fitting a set of 18″ wheels instead of 19″, wrapped in low-rolling-resistance Bridgestone tires that helped generate extra kilometers.

The longest distance traveled by a vehicle with one battery charger is muc022. It is about a vehicle constructed by students, which achieved a range of 2,573.79 km last year.

Source: Autocar

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Ford Mustang stays loyal to the V8 engine

In 1964, Ford introduced a series of cars with, currently, the longest manufactured nameplate, the Ford Mustang. After six decades and six generations of this model, Ford still remains loyal to the V8 engine, despite the fact that most manufacturers have completely abandoned internal combustion engines.

The seventh generation will be powered by a 5-liter naturally aspirated Coyote V8 engine with 486 – 500 hp (362 – 373 kW), depending on the market. The Mustang is an icon of the American auto industry and has been one of the best-selling sports cars for years, and soon it could get a GTD version based on the Mustang GT3 racer. The GT3 was developed in cooperation with M-Sport and is powered by the Coyote engine-based 5.4L naturally aspirated V8. However, the GTD will be powered by a 5.2-liter V8 engine with more than 800 hp (597 kW).

Their main competitors in the American market, Chevrolet and Dodge do not share the same opinion when it comes to V8 engines. The Camaro and Challenger models are no longer available with this type of engine, leaving muscle car fans without the sound of their thunder.

Last summer, Ford introduced the fully electric Mustang Mach-E Rally powered by two electric motors, one on each axle, with a total output of 480 hp (353 kW) and 652 lb-ft (884 Nm) of torque. This caused a lot of resentment among fans of this model, and Ford tried to calm it down a bit with the Ford Mustang EcoBoost model, which is powered by a 2.3-liter four-cylinder turbo gasoline engine with 315 hp (235 kW) and 350 lb-ft (475 Nm) of torque.

Source: Ford