Battery Control Device Slope-Adjusted Permissible Current Computation

The patent applies dynamics by making the permissible current computation adaptive to different SOC regions. The control method dynamically switches between fixed computation (non-steep regions) and slope-adjusted computation (steep regions), allowing the system to optimize battery output based on real-time operating conditions while maintaining simplicity where applicable.

The patent changes the computation parameters based on the SOC region. In steep change regions, the method uses the absolute value of the OCV slope as an additional parameter to adjust the permissible current calculation, whereas in non-steep regions, it uses the conventional fixed computation method, thereby optimizing battery output without excessive complexity.

The patent applies local quality by implementing different safety margins for different SOC regions. In steep change regions, a moderate margin based on OCV slope is applied to ensure safety, while in non-steep regions, no additional margin is needed, allowing maximum battery output. This localized approach prevents excessive current only where necessary.

The safety margin is made dynamic by adjusting it based on the SOC region. The system automatically applies the slope-based margin only when operating in steep change regions and uses conventional margins elsewhere, thereby maintaining safety without unnecessarily limiting battery output in safe operating regions.

The patent changes the computation parameters based on the SOC region. In steep change regions, it incorporates the absolute value of the OCV slope as an additional parameter to improve prediction accuracy, while in non-steep regions, it uses the conventional simpler computation method, thereby balancing accuracy and complexity.

The patent segments the SOC range into steep change regions and non-steep regions, applying different computation methods to each segment. This segmentation allows the system to use enhanced computation only where needed for accuracy while maintaining simplicity in other regions, optimizing the balance between complexity and precision.

The patent makes the control method dynamic by automatically adapting to different SOC regions. The system uniformly applies the appropriate computation method based on real-time SOC position, switching between fixed computation and slope-adjusted computation as needed, thereby achieving both uniformity of implementation and adaptability to specific operating conditions.

The patent creates a universal control method that handles both steep and non-steep regions within a single framework. The method universally checks the SOC region and applies the appropriate computation strategy, making the control system adaptable to various operating conditions while maintaining a unified control architecture.