The BMW Group has unveiled the first vehicles in its pilot hydrogen fleet that will enter service this year.

After four years of development work, the iX5 hydrogen vehicle and development project is entering the next phase as a fleet of just under 100 vehicles will be deployed internationally for demonstration and trial purposes.

This active driving experience will be the first chance for targeted public groups to gain an impression of what a hydrogen vehicle has to offer.

“Hydrogen is a versatile energy source that has a key role to play in the energy transition process and, therefore, in climate protection,” says BMW management board chairperson Oliver Zipse.

“After all, it is one of the most efficient ways of storing and transporting renewable energies.

“We should use this potential to also accelerate the transformation of the mobility sector.

“Hydrogen is the missing piece in the jigsaw when it comes to emission-free mobility. One technology on its own will not be enough to enable climate-neutral mobility worldwide.”

BMW Group sold more than 215 000 battery electric vehicles worldwide in 2022, which is an almost 108% increase over the previous year.

Fully electric vehicles accounted for just under 9% of total sales last year, and this share is set to increase to 15% this year.

By 2030 at the latest, BMW aims for fully electric vehicles to claim a more than 50% share of its overall sales.

With the right conditions, hydrogen fuel cell technology has the potential to become a further pillar in BMW’s drivetrain portfolio for local carbon-free mobility, says the German carmaker.

The BMW iX5 Hydrogen, developed on the current X5 platform, was first unveiled as a concept vehicle in 2019.

Initial prototypes were then made available in 2021 for German motor show visitors to experience as shuttle vehicles.

BMW produces the fuel cell systems for the pilot fleet at its in-house competence centre for hydrogen in Munich, Germany. The technology is one of the core elements in the iX5 Hydrogen, and generates a continuous output of 125 kW.

A chemical reaction takes place in the fuel cell between gaseous hydrogen from the tanks and oxygen from the air.

Maintaining a steady supply of both elements to the fuel cell’s membrane is of crucial importance for the drive system’s efficiency.

Fuel cell systems are manufactured in two main steps.