Battery Charger Cabinet Control for Dynamic Battery Authentication
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Solution Overview
Problem
Existing systems for exchanging rechargeable batteries in light electric vehicles, such as scooters and bicycles, are inefficient due to the need for users to physically locate and travel to a rechargeable battery cabinet, and lack scalable authentication and tracking mechanisms, leading to overhead in system management.
Innovation Solution
A rechargeable battery cabinet system that assigns dynamic and static identification numbers to batteries, allowing for efficient authentication, tracking, and charging, with a processor-controlled method for managing battery exchange and charging, enabling scalable expansion without reprogramming.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Ease of operation
If a rechargeable battery cabinet system is implemented with physical location requirements, then battery authentication and charging can be performed, but users must physically locate and travel to the cabinet, reducing convenience
Solution Approach 1:
The patent replaces the mechanical requirement of physical presence at the cabinet with wireless communication technology. The mobile device can remotely interact with the battery cabinet system through wireless signals, eliminating the need for users to physically travel to the cabinet location. This substitution of mechanical interaction with electromagnetic communication resolves the contradiction by maintaining authentication functionality while dramatically improving user convenience and eliminating travel time.
2Adaptability or versatility
If traditional battery tracking methods are used, then authentication can be performed, but the system lacks scalability when adding additional cabinets and receptacles
Solution Approach 1:
The patent implements dynamic identification numbering where battery IDs are not fixed to specific physical locations but are dynamically assigned and managed by the server. When new cabinets or receptacles are added to the system, the server automatically generates new dynamic IDs without requiring reprogramming of existing components. This dynamic approach allows the system to scale flexibly while maintaining simple authentication protocols, resolving the contradiction between scalability and system complexity.
Solution Approach 2:
The patent creates a universal authentication system where a single server manages authentication across multiple cabinets and receptacles. The server handles ID generation, battery tracking, and authentication requests for the entire network of cabinets through a unified interface. This universal approach eliminates the need for separate authentication systems at each cabinet, enabling easy scalability while keeping the overall system architecture simple and manageable.
3Productivity
If manual battery management is performed, then individual battery tracking is possible, but operational overhead increases significantly
Solution Approach 1:
The patent implements an automated self-service system where the server automatically generates dynamic identification numbers for batteries, tracks their locations, and manages authentication without human intervention. When a battery is placed in a receptacle, the system automatically detects it, assigns or retrieves its ID, and manages the charging process. This automation eliminates manual tracking operations, significantly reducing operational overhead while maintaining high productivity in battery exchange operations.
Solution Approach 2:
The patent establishes a feedback loop where the system continuously monitors battery status, location, and charging state through automated sensing and communication. The server receives real-time data from cabinets and batteries, processes this information, and automatically adjusts authentication and charging parameters. This closed-loop feedback system enables efficient battery management with minimal human intervention, resolving the contradiction between productivity and operational complexity.
Data Source
AI summary
The present application describes systems and methods for authenticating rechargeable batteries in a rechargeable battery cabinet. The rechargeable battery cabinet may be a part of a large, scalable, distributed network of rechargeable battery cabinets, in which rechargeable battery cabinets may be removed or added based on consumer demand for fresh batteries. The system and methods may track the rechargeable batteries and where they are located in the rechargeable battery cabinets by first assigning a dynamic identification number, such that a rechargeable battery compartment does not need a static identifier. The system and method may allow for real-time reading of the status of rechargeable battery cabinets and rechargeable batteries in the system. Each rechargeable battery may have a static identifier to uniquely identify the rechargeable battery. This system and method allows for efficient scaling and identification of rechargeable battery within the system.