Integrated thermal interface architecture: BayerRecent Research Landscape
Inefficient heat transfer between battery cells and cooling circuits leads to thermal runaway and reduced cycle life. This control lever optimizes the physical mounting and thermal coupling interfaces to ensure uniform temperature distribution.
What technical problems is Bayer addressing in Integrated thermal interface architecture?
Hazardous thermal runaway propagation
(86)evidences
High-density drive batteries suffer from heat accumulation that triggers thermal runaway or performance degradation. Resolving this bottleneck prevents catastrophic failure and extends the operational lifespan of the powertrain.
Internal air volume expansion
(30)evidences
High-density battery packs generate significant thermal energy during rapid discharge and charging cycles. Preventing thermal runaway and cell degradation ensures vehicle safety and extends operational lifespan.
Battery cell thermal runaway
(20)evidences
Delayed identification of cell failure leads to catastrophic propagation. Early detection prevents systemic failure and improves vehicle safety.
Hazardous thermal runaway propagation
(12)evidences
Excessive gas accumulation within battery cells leads to catastrophic casing failure and thermal runaway. Mitigating this risk ensures structural integrity and prevents hazardous electrolyte leakage during malfunction.