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Recycling ausrangierter Hochvoltbatterien

Background Knowledge  |  Batterie-Recycling


It just keeps on charging …

When it comes to the recycling of discarded high-voltage batteries from electric vehicles, Volkswagen is at the forefront. We show how the second life of a battery might look – and which other efforts Volkswagen is making on the path towards carbon-neutral mobility.

Keeps on giving despite intensive use

Battery-operated vehicles have real staying power – due also to the durability of modern battery systems. Within the scope of the warranty and the conditions listed therein, Volkswagen AG therefore guarantees the customer buying a brand new battery electric vehicle (BEV) with an electric drive that the usable capacity of the battery will not fall below 70 percent within eight years (or up to 160,000 kilometres driven, whichever comes first) as long as the vehicle is used correctly.

But even the best high-voltage battery will reach the end of its service life at some point. After all, it has to do a lot: drive several tonnes of weight, absorb new energy through recuperation during braking, make an intensive short stop at the quick-charging station from time to time, then charge again for hours overnight at the optional home charging station. All of this places demand on the battery cells.

But despite this, a high-voltage battery is still not ready for the scrap heap at the end of its operational life. Instead, it should be recycled in a closed loop system in which its valuable resources are used as sustainably as possible. Volkswagen has been researching this topic for a decade and has developed a variety of solutions.

“Volkswagen does not want to hand over the raw material cycle for the battery at any point. The battery and its raw materials form the basis for the circular economy of future mobility. “

Herbert Diess, CEO of Volkswagen AG

Concrete ideas for the second life of batteries

One of these is the re-manufacturing of battery systems – in other words exchanging individual defective components for new ones. Old batteries are therefore reconditioned to drive electric vehicles for many more kilometres. Alternatively, used batteries that are still functional in many cases can be redeployed in other areas. With this type of reuse, the rechargeable batteries are simply removed from the car flooring and can continue to be used, for instance, in flexible energy storage units or mobile charging robots. The batteries then start their second-life phase. Volkswagen is already testing such projects at its plants and in joint projects with municipalities and energy suppliers.

The other Group brands are similarly committed: For example, ŠKODA offers its distributors energy storage units developed in-house, which they can use to store surplus green electricity from their own photovoltaic systems and then use it later for lighting showrooms or for charging electric vehicles. This extends the useful life of the batteries to up to 15 years. And Audi is working with a German/Indian start-up, which uses old e-tron batteries to provide local dealerships with a more reliable power supply.

Der Kreislauf der Batterie-Rohstoffe

Old batteries as a valuable source of raw materials

If a second life is no longer possible for a battery, the only thing that remains is recycling. Though the “only” is misleading: That’s because even a discarded high-voltage battery is full of valuable raw materials such as lithium, nickel, manganese, cobalt and graphite. And all of these materials can be extracted and reused. Let’s take an example: A battery weighing 400 kilos enables recovery of more than 100 kilos of aluminium, more than 100 kilos of electrode material (including lithium, nickel and manganese) and more than 20 kilos of copper.

Batterie-Recycling

This is exactly what happens in Salzgitter, where Volkswagen Group Components launched the Group’s first pilot system for recycling discarded vehicle batteries in spring 2020. The employees at the plant can now recycle 3,600 battery systems each year – this adds up to around 1,500 tonnes of raw materials, which can be reused to produce new battery systems. The lasting impact is enormous: not only is the demand for newly mined rare materials reduced as a result of recycling. Significantly fewer carbon emissions are produced also – around 1.3 tonnes per 62 kWh battery, which is produced from recycled cathode material using electricity from renewable sources. And last but not least, recycling pays off both economically and socially by reducing costs in the long term and safeguarding jobs.

“We know that recycled battery raw materials are just as effective as new ones. We can use the material recovered to support the supply of our cell production in the future.”

Frank Blome, Head of Battery Cells and Systems at Volkswagen Group Components

Greater transparency – also thanks to blockchain

Apart from the high ambitions to develop the battery life into a closed loop system, the Volkswagen Group is likewise committed to achieving greater environmental and social sustainability in terms of the primary extraction of raw materials. That’s because the current recycling volumes are not yet sufficient for the successfully initiated switch to the era of electric mobility. Volkswagen commits its suppliers to high environmental and social standards through a code of conduct so that the recovery of raw materials is handled as carefully as possible for batteries. But that is by no means all: The company is also involved in various programmes for protecting near-natural mining regions, including the Responsible Lithium Partnership and Global Battery Alliance.

Batterie-Wertschöpfungskette

Highly innovative technologies, such as blockchain, are also set to be used here in the future in order to seamlessly document the origin and pathways of important raw materials for high-voltage batteries and make the journey transparent almost in real time. As soon as the number of battery returns increases from the end of the 2020s, recycling should finally become the most important source of raw materials. The course for this has already been set in Salzgitter.

“Even after a normal vehicle life of 200,000 to 300,000 kilometres, the battery will remain by far the most valuable component in the car and is likely to be used for several years yet in stationary storage units at the end of the vehicle life. Only then is it – possibly completely – recycled. This creates a sustainable value chain with many new business opportunities, which we will exploit for Volkswagen.“

Herbert Diess, CEO of Volkswagen AG

Status: 30.11.2021
© Volkswagen AG

Q7, fuel consumption in l/100 km (combined):11,0–7,8; CO₂ emissions in g/km (combined): 251–204; CO₂ class: G. Information on fuel/power consumption and CO₂ emissions given in ranges depends on the equipment selected for the vehicle. Vehicle images show special equipment. (Status 03.2024)
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Enyaq 85 / Enyaq 85x, Enyaq 85: power consumption in kWh/100 km: combined 15.8-14.9; CO₂ emission in g/km: combined 0. Enyaq 85x: power consumption in kWh/100 km: combined 16.8-16.0; CO₂ emission in g/km: combined 0. Only consumption and emission values according to WLTP and not according to NEDC are available for the vehicles. Information on fuel/power consumption and CO₂ emissions given in ranges depends on the equipment selected for the vehicle. Vehicle image shows special equipment. (Status: 12.2023)
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Audi S6 Limousine TDI, fuel consumption in l/100 km (combined): 7,3–6,9; CO₂ emissions in g/km (combined): 191–182. Consumption and emission values are only available according to WLTP and not according to NEDC for the vehicle. (Status: 10.2023)
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Tavascan, vehicle image shows optional equipment. (Status: 04.2023)
Vehicle no longer available for order, no consumption and emission data are available.
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Audi R8 Spyder, fuel consumption in l/100 km: combined 13.9–13.4; CO₂ emissions in g/km: combined 316-305. Only consumption and emission values according to WLTP and not according to NEDC are available for the vehicles. Information on fuel/power consumption and CO₂ emissions given in ranges depends on the equipment selected for the vehicle. Vehicle images show special equipment. (Status: 03.2023)
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Leon CUPRA 300, no longer available for order. (Status: 03.2023)
Audi e-tron, power consumption in kWh/100 km: combined 24.3–22.0; CO₂ emissions in g/km: combined 0: efficiency class: A+++. Vehicle images show special equipment. (Status: 09.2019)
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SEAT Leon e-Hybrid, currently not available. (Status: 03.2023)
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ID.4, ID.4 Pure Performance: power consumption in kWh/100 km: combined 17.9–16.7; CO₂ emissions in g/km: combined 0. ID.4 Pro Performance: power consumption in kWh/100 km: combined 18.6–16.4; CO₂ emissions in g/km: combined 0. ID.4 Pro 4MOTION: power consumption in kWh/100 km: combined 19.3–17.1; CO₂ emissions in g/km: combined 0.Only consumption and emission values according to WLTP and not according to NEDC are available for the vehicles. Information on fuel/power consumption and CO₂ emissions given in ranges depends on the equipment selected for the vehicle. Vehicle images show special equipment. (Status: 03.2023)
Enyaq iV and Enyaq Coupé iV, Enyaq iV: power consumption in kWh/100 km: combined 17.1–15.8; CO₂ emissions in g/km: combined 0. Enyaq Coupé iV: power consumption in kWh/100 km: combined 16.9–15.4; CO₂ emissions in g/km: combined 0.Only consumption and emission values according to WLTP and not according to NEDC are available for the vehicles. Information on fuel/power consumption and CO₂ emissions given in ranges depends on the equipment selected for the vehicle. Vehicle images show special equipment. (Status: 03.2023)
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ID.4 GTX, power consumption in kWh/100 km: combined 19.3–17.2 (WLTP); CO₂ emissions in g/km: combined 0. Only consumption and emission values according to WLTP and not according to NEDC are available for the vehicles. Information on fuel/power consumption and CO₂ emissions given in ranges depends on the equipment selected for the vehicle. Vehicle images show special equipment. (Status: 03.2023)
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ID.3, power consumption in kWh/100 km: combined 16.5–15.2; CO₂ emissions in g/km: combined 0. Only consumption and emission values according to WLTP and not according to NEDC are available for the vehicles. Information on fuel/power consumption and CO₂ emissions given in ranges depends on the equipment selected for the vehicle. Vehicle images show special equipment. (Status: 07.2023)
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Image shows concept vehicle/study, the vehicle is not available as a production model, no consumption and emission data are available.
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SEAT Tarraco e-HYBRID, power consumption in kWh/100 km: Combined 14.5; fuel consumption/petrol in l/100 km: Combined 1.8; CO2 emissions in g/km: Combined 41; efficiency class: A+. Vehicle image shows optional equipment. (Status: 05.2021)
Audi Q4 e-tron , power consumption in kWh/100 km: Combined 17.3–15.8 (NEDC); Combined 19.0–17.0 (WLTP); CO₂ emissions in g/km: 0; efficiency class A+. Vehicle image shows optional equipment. (Status: 05.2021)
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ID.4 GTX, Power consumption in kWh/100 km: 18.2-16.3 combined; CO2-emission combined in g/km: 0; Efficiency class: A+++. Vehicle image shows optional equipment. (Status: 10.2021)
ID.5 GTX, power consumption in kWh/100 km: combined 17.1 – 15.6; CO₂ emissions combined in g/km: 0. Efficiency class: A+++; Vehicle image shows optional equipment.
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Audi S8 TFSI, fuel consumption in l/100 km: combined 10.8-10.7; CO₂ emissions in g/km: combined 246-245; efficiency class: E.¹⁾ Vehicle image shows optional equipment. (Status: 05.2022)
ID.3 1ST, power consumption in kWh/100 km: combined 15,4 – 13,5; CO₂ emissions combined in g/km: 0; Efficiency class: A+; Vehicle image shows optional equipment. (Status: 09.2021)
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