Common Battery Module Interfaces for Cross-System Swapping
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Solution Overview
Problem
Custom battery solutions for specific applications are often expensive and have longer lead times due to customization requirements, and existing battery systems are not easily interchangeable between different applications such as aircraft and microgrid charging systems.
Innovation Solution
The development of cross-compatible battery modules with common interfaces for both microgrid charging systems and aircraft battery systems, including plumbing, communication, venting, and electrical connections, allowing for easy swapping and secondary life applications.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If custom battery solutions are designed for specific applications, then performance and reliability are improved, but cost and lead time increase
Solution Approach 1:
The patent implements universal battery modules with standardized interfaces that can be used across multiple applications including aircraft and microgrid systems. The common mechanical, electrical, thermal, and fluid interfaces allow a single battery module design to serve multiple purposes, eliminating the need for application-specific customizations and thereby reducing lead time while maintaining reliability through proven standardized designs
2Reliability
If custom battery solutions are designed for specific applications, then performance and reliability are improved, but cost increases
Solution Approach 1:
The patent implements universal battery modules with standardized interfaces that can be used across multiple applications including aircraft and microgrid systems. The common mechanical, electrical, thermal, and fluid interfaces allow a single battery module design to serve multiple purposes, eliminating the need for application-specific customizations and thereby reducing lead time while maintaining reliability through proven standardized designs
3Power
If battery systems are designed with application-specific interfaces, then system optimization is improved, but interchangeability and adaptability deteriorate
Solution Approach 1:
The patent implements universal battery modules with standardized interfaces that can be used across multiple applications including aircraft and microgrid systems. The common mechanical, electrical, thermal, and fluid interfaces allow a single battery module design to serve multiple purposes, eliminating the need for application-specific customizations and thereby reducing lead time while maintaining reliability through proven standardized designs
Solution Approach 2:
The patent enables dynamic reconfiguration of battery systems through standardized interfaces that allow modules to be easily added, removed, or reconfigured based on power requirements. The modular design with common interfaces permits the system to adapt its configuration dynamically without requiring custom integration work, thus maintaining adaptability while achieving power optimization through proper module selection and arrangement
4Device complexity
If battery modules are designed for single-use applications, then design simplicity is improved, but resource utilization and cost-effectiveness deteriorate
Solution Approach 1:
The patent implements universal battery modules with standardized interfaces that can be used across multiple applications including aircraft and microgrid systems. The common mechanical, electrical, thermal, and fluid interfaces allow a single battery module design to serve multiple purposes, eliminating the need for application-specific customizations and thereby reducing lead time while maintaining reliability through proven standardized designs
Solution Approach 2:
The patent facilitates the recovery and reuse of battery modules through standardized interfaces that enable easy removal and reinstallation in different applications. When battery modules reach end-of-life in one application, they can be efficiently recovered and deployed in secondary applications with reduced requirements, maximizing resource utilization and reducing waste
Data Source
AI summary
A charging ecosystem may comprise: an interconnected battery module; a first battery system comprising a first plurality of the interconnected battery modules; and a second battery system comprising a second plurality of the interconnected battery module. The first battery system may be configured for charging the second battery system. The second battery system may be configured for powering an electric vehicle. The interconnected battery module is adaptable to various interfaces with the first system and the second system.


