Simulation Gives Fast Answers to Complex Operational Issues
MapleSim’s web handling simulation tool is the ideal toolkit for engineers that work on Battery manufacturing processes or that design converting equipment for the next wave of Gigafactories. The flexible and efficient simulations give fast answers to complex operational issues, without halting production equipment.
Reduce the risk of breakage or quality issues: Validate preferred tension control and winding profiles over a variety of operational scenarios.
Determine optimal driven roller and buffer system settings to streamline productivity in battery manufacturing plants.
Understand the dynamics of a new processing stage: narrow down early concept design decisions when working with thin materials on high-speed lines.
Integrating simulation into your organization cuts testing costs and allows you to innovate faster.
Industrial Applications for MapleSim Models:
Circular Batteries: Anode, Cathode, and Separator Web Lines
Prismatic Batteries: Separator Web Lines
Designing and Tuning Buffer Systems and Dancers
Modeling Tension Control, Multi-web Winding, and Z-Folding
Customer Case Studies
How battery cell manufacturers use MapleSim Simulation
Modeling Battery Production – Cylindrical and Prismatic
As battery production scales to meet global demand, manufacturers face increasing pressure to optimize roll-to-roll processes used for producing and handling electrode materials and during cell assembly. These processes involve the continuous movement of thin materials (webs) such as metal foils and polymer films through complex machinery, where maintaining precise tension is critical to product quality and throughput.
This is where MapleSim’s web handling simulation becomes a transformative tool. It provides an environment to simulate roll-to-roll systems and covers some of the intricate aspects of such systems directly related to cylindrical battery winding and prismatic battery production.
Multi-roller buffer systems design to handle cyclic web speed differences between different converting web lines. Challenges included: resonance and tension variation, kinematics and control for the range of motion
Simultaneous winding of anode, cathode, and two separators and the tension oscillations caused by the inherent out-of-roundness of the jelly roll
Optimizing web lines and accommodating production demands by quickly comparing the effect of dancer parameters, load cell locations, and feedback gains
Providing deep insight into the evolution of the tension in the separate line of a stacking process