In a world where reliance on electric vehicles, smart devices and green energy storage is growing exponentially, the need for advanced battery solutions is undeniable. Spatial Atomic Layer Deposition (Spatial ALD) has a crucial role to play in driving innovations within battery technology, with the potential to radically improve core aspects of battery performance – from energy density and reliability to safety.
Roll-to-Roll production lines
Our Spatial ALD technology is atmospheric and compatible with Roll-to-Roll production lines. Together with our German partner Coatema GmbH, we have matured the Spatial ALD technology to roll-to-roll where we ensure that the required layer thickness is obtained within a single pass from reel to reel. Spatial ALD’s unique properties allow us to conformally apply our layer in the deepest pores, making even the most complex 3D surface topology accessible.
Improved safety, stability, and sustainability of batteries
Increased capacity retention
Roll-to-Roll compatibility
Adaptability to complex 3D surfaces
Tailoring of the complex battery interfaces
Improved solid-state battery quality
Solid-state batteries are the future due to improved safety and longer lifetime. With a solid electrolyte, these batteries are less sensitive to leaks and thermal runaways. While the technology is still under development, Spatial ALD is proving to improve their performance. Applying a solid electrolyte interface (SEI) with Spatial ALD ensures less active ion loss during the first charge cycles, allowing for longer capacity retention. In addition, a Spatial ALD layer can also shorten the SEI forming process; leading to significant reduction in production costs. Lastly, thin layers can reduce internal resistance and optimize ion conductivity, making solid-state batteries more attractive for various applications.
Spatial ALD improves battery safety by significantly reducing the risk of short circuits, overheating and fire. By applying ultra-thin protective layers, Spatial ALD increases the chemical stability of the battery components and prevents dendrite formation or transition metal dissolution.
By accurately applying thin functional layers, such as an artificial solid-electrolyte-interface (SEI), to 3D topologies, Spatial ALD allows for the use of energy denser materials by counter-acting high volumetric expansion. This enables more compact battery designs with higher energy storage, crucial in for example the EV market.
Yes, our Spatial ALD technology is compatible with roll-to-roll battery production lines. The Spatial ALD technology can be added to existing production lines to immediately improve the battery performance and reduce production costs by e.g. shortening the solid-electrolyte-interface formation process.
Yes, Spatial ALD can be applied to various battery technologies, including lithium-ion, sodium-ion, solid-state and other emerging battery technologies. The versatility of Spatial ALD makes it a valuable tool for improving various battery types.
High-quality 3D layers and suitable for porous substrates.
Limited deposition speed
Parasitic backside deposition
Batch process
Vacuum chamber and pumps needed
High cost per substrate
Spatial ALD
High-quality 3D layers and suitable for porous substrates.
100-300 times faster deposition speed by our spatial technology in combination with plasma enhanced deposition
Continuous S2S and R2R process
Atmospheric pressure deposition
Scalable to large areas & flexible substrates
Industrially proven, cost-efficient mass production.
Why?
Why choose for the R&D Tool?
Improved functionality
Maximum throughput
Sustainable
Lowest possible costs
Improved material reduction
Innovation by working together
Get in touch!
Discover the opportunities that Spatial ALD offers for your sector or project. Are you ready to explore the future of battery technology? Get in touch.
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