Rivian technology to shape the next generation of VW electric cars
The joint software and electronics development by Rivian and the Volkswagen Group is moving closer to production cars. For future models from VW, Audi, Porsche, Skoda and Cupra, fewer control units, fewer cables and better over-the-air updates could become the decisive step forward.

Rivian is becoming more than just a software partner for Volkswagen
The partnership between Rivian and the Volkswagen Group is developing into one of the most important technology projects for the next generation of electric cars from Wolfsburg. At its center is not a single model, but the fundamental electronics and software architecture on which upcoming vehicles from Volkswagen, Audi, Porsche, Skoda, Cupra and other Group brands are to be based.
The joint venture Rivian and Volkswagen Group Technologies, known as RV Tech for short, was announced in 2024. The financial framework is up to 5.8 billion US dollars, and it has also been put at around 4.5 billion pounds. The scale makes it clear: this is not a small supplier agreement, but a strategic intervention in the way the Group's future electric cars are developed, built and updated over many years.
Rivian primarily contributes experience with modern vehicle software, its own electronics hardware and a comparatively lean vehicle architecture. Volkswagen contributes its industrial reach, global model range and production capacity. The logic is understandable for both sides: Rivian gains economies of scale and a financially strong partner, while Volkswagen accelerates the transformation of its software and electronics base.
Fewer control units, fewer cables, more computing power

A key concept of the project is the zonal electrical architecture. In many of today's cars, numerous control units are distributed throughout the vehicle. Each system – from window lifters and driver assistance to infotainment – can bring its own electronics modules, wiring paths and software dependencies. This makes modern vehicles powerful, but also heavy, expensive and complex.
A zonal architecture bundles functions more strongly in specific areas of the vehicle. Instead of dozens of separate control units, more powerful computers take over multiple tasks. The wiring can be shorter and simpler because sensors and actuators are connected closer to local control centers. This creates potential advantages in terms of weight, material use, production effort and fault diagnosis.
For car buyers, this initially sounds abstract. In practice, however, this architecture can have noticeable consequences. Fewer cables and fewer control units can help reduce costs or at least ease the cost pressure on electric cars. A clearer electronics structure can also improve reliability because fewer individual components and interfaces have to be coordinated with one another. It is also crucial that software updates can get into the vehicle more easily and work more cleanly across multiple systems.
Why over-the-air updates are becoming more important

Electric cars are increasingly being treated like digital platforms. That means not only large touchscreens or app connectivity, but also continued development for longer after delivery. Over-the-air updates can fix errors, improve functions or unlock new services without the car having to go to the workshop.
Rivian has strongly emphasized this approach from the beginning. At Volkswagen, by contrast, the experience with software in recent years has been mixed. Especially at the launch of the ID. family, it became clear how difficult it is to convert a large dealership and production system to software-defined vehicles. Updates, infotainment performance and the integration of new functions were decisive everyday issues for many customers.
The new cooperation is intended to address exactly this point. If hardware and software are conceived together from the outset, functions can later be added or improved more easily. For owners, this can mean that their vehicle not only remains stable over its service life, but actually improves in certain areas. For manufacturers, it is a way to shorten development cycles and roll out new functions across brands.
SSP as the central stage for the new technology
The jointly developed technology is to be linked above all with Volkswagen's upcoming SSP architecture. SSP stands for the Group's next major electric platform and is intended in the long term to replace or merge several of today's platforms. It is designed for a broad range of vehicles – from volume models to high-end premium or performance electric cars.
This means the scope of the Rivian cooperation is greater than with a single model family. If SSP is used by various Group brands as planned, Rivian's electronics and software approaches could appear in very different vehicles: in a future Volkswagen model, a Skoda family car, a Cupra with a sporty orientation, a next-generation Audi EV or an electric Porsche.
However, this does not mean that these cars will become identical. The basic architecture can be shared, while brands continue to develop their own chassis tuning, interior concepts, user interfaces, performance levels and design languages. For the Group, precisely this combination is attractive: a common technical foundation, but different brand characters above it.
What buyers could gain from it
For customers, what ultimately matters is not which internal architecture sits beneath the bodywork, but whether the car is easier to use, more reliable, more efficient and more future-proof. The Rivian-VW technology could become relevant above all in four areas.
First, reduced electrical complexity can help with weight. Every cable saved and every control unit eliminated is small in itself, but significant in total. In electric cars, weight has a direct effect on efficiency, range, brake wear and tire wear.
Second, a modern software base can improve operation. Faster infotainment responses, more reliable smartphone integration and more stable assistance systems have long been more important than classic performance figures for many buyers.
Third, updates can influence value retention. A car that still receives new functions or improvements after three or five years appears more attractive on the used-car market than a model whose software status is practically frozen.
Fourth, a common architecture can reduce development and production costs. Whether these savings are passed directly on to prices remains open. In a market with fierce competition from Tesla, Chinese manufacturers, Hyundai-Kia and other providers, cost discipline is crucial for established manufacturers.
For Volkswagen, it is also a cultural shift
The partnership shows how profoundly the auto industry is changing. In the past, large manufacturers bought many electronic components from suppliers and integrated them into a vehicle project. Today, the central software architecture itself is becoming a competitive factor. Those who master it can develop faster, retain customers for longer and continue to improve vehicles after the sale.
For Volkswagen, the step is particularly significant because the Group covers a very large number of brands and vehicle classes. A new technical basis must not only work in a premium electric car, but also in large volumes, in different markets and under various regulatory requirements. Rivian's experience is valuable, but scaling it to Group level remains a demanding task.
Still no guarantee of perfect software
Despite the great potential, caution remains advisable. A new architecture alone does not guarantee error-free cars. What will be decisive is how cleanly Volkswagen and Rivian transfer the technology into production models, how well dealers and workshops are prepared and how transparently updates are communicated to customers.
The timetable also depends on future model programs and platform decisions. What is clear so far is above all the direction: the next generation of electric cars from the Volkswagen Group is to become more strongly software-defined, more simply networked and electronically less fragmented.
For buyers and enthusiasts, this is an important development because it shows that competition in electric cars is no longer decided only by battery capacity, charging power and acceleration. The invisible architecture beneath the sheet metal will increasingly determine how good a car feels in everyday life – on the first day and years later.



