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SYSTEMS AND METHODS FOR ELECTRIC VEHICLE (EV) MESH CONNECTIVITY AND ENERGY MANAGEMENT

发明专利审中
20权利要求 · 2 独立
§ Ⅰ

卷宗概要

发明人

Carter LI; Seyed Javad FATTAHI

IPC 分类

B60L 53/67B60L 53/14B60L 53/62B60L 53/63B60L 53/66B60L 53/68B60L 55/

CPC 分类

B60L53/67B60L53/62B60L53/63B60L53/665B60L53/68B60L55/B60L53/14B60L2240/72

Systems and methods for establishing mesh connectivity among electric vehicle (EV) chargers within a network, leveraging Sub-GHz networking for enhanced communication. The method involves configuring a mesh network architecture connecting existing EV charging units, a host application, and a user application. Load balancing mechanisms consider the building's power usage beyond EV charging units, ensuring efficient energy distribution in real-time. Power allocation to EV chargers is dynamically adjusted based on load balancing metrics. The mesh network is seamlessly integrated with an internet backbone, facilitating communication with user devices such as smartphones and vehicles. This enables efficient communication between charging stations and a hosting application, allowing real-time monitoring and management of the charging network's power supply. The user application offers remote monitoring, scheduling of charging sessions, and billing functionalities, enhancing user experience and system efficiency. Some example embodiments include programs to connect the user application, host application, and mesh network.

原文(中文)

Systems and methods for establishing mesh connectivity among electric vehicle (EV) chargers within a network, leveraging Sub-GHz networking for enhanced communication. The method involves configuring a mesh network architecture connecting existing EV charging units, a host application, and a user application. Load balancing mechanisms consider the building's power usage beyond EV charging units, ensuring efficient energy distribution in real-time. Power allocation to EV chargers is dynamically adjusted based on load balancing metrics. The mesh network is seamlessly integrated with an internet backbone, facilitating communication with user devices such as smartphones and vehicles. This enables efficient communication between charging stations and a hosting application, allowing real-time monitoring and management of the charging network's power supply. The user application offers remote monitoring, scheduling of charging sessions, and billing functionalities, enhancing user experience and system efficiency. Some example embodiments include programs to connect the user application, host application, and mesh network.