Autonomous Architecture™ is Addionics’ battery architecture for high-utilization autonomous and electric applications – designed for fast recharge, repeated cycling, minimal downtime, and long-term reliability.
Autonomous Architecture™ is Addionics’ product architecture for batteries operating under continuous, high-demand conditions.
Built on Smart 3D Porous Current Collectors, it replaces conventional flat metal foils with a conductive, porous 3D metal structure that becomes part of the cell architecture itself.
The result is a battery structure designed to support more uniform electrolyte movement, improved salt homogeneity, stable ion transport, and more balanced current distribution during repeated cycling and fast recharge.
BUILT FOR BATTERIES THAT NEED TO DO MORE
Supports rapid recharge and redeployment
between missions, routes, or shifts.
Helps reduce internal imbalance during repeated charge-discharge cycles.
Supports wider usable operating windows
by improving internal cell stability.
Designed for applications where every hour
off the road, off route, or off mission matters.
Supports more stable battery behavior
across high-utilization operation.
Improves battery behavior from inside
the cell, not only through materials,
pack design, or software.
Under continuous operation, batteries have less time to recover between cycles.
This can create internal concentration gradients that affect ion transport, accelerate degradation, and reduce usable capacity. One mechanism behind this challenge is EMSI (Electrolyte Motion induced Salt Inhomogeneity).
Autonomous Architecture™ is designed to support more uniform electrolyte movement, improved salt homogeneity, and more stable performance under high-utilization operation.
Want to learn more?
Read our full article on EMSI
and its impact on battery performance
Download the Autonomous Architecture™ White Paper to explore the battery science, EMSI challenge, and cell architecture behind 24/7 autonomous operation.
Download the Autonomous Architecture™ White Paper to explore the battery science, EMSI challenge, and cell architecture behind 24/7 autonomous operation.