Wireless E-Bike Docking With Solar Power and Secure Locking
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Solution Overview
Problem
Conventional e-bike systems face challenges in efficiently managing fleets, particularly in locations without access to mains power infrastructure, and there is a need for secure and efficient methods to secure and charge e-bikes.
Innovation Solution
An e-bike docking system with a docking arrangement and wireless charging capability, utilizing an onboard power supply, such as photovoltaic panels, to facilitate secure and efficient charging of e-bikes without reliance on external power infrastructure.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If conventional charging systems relying on mains power infrastructure are used, then charging can be provided in locations with power access, but the system cannot be deployed in areas without mains power infrastructure
Solution Approach 1:
The docking system incorporates an onboard power supply (such as photovoltaic panels) that generates its own electrical power, allowing the system to be self-sufficient and independent of external mains power infrastructure. This enables deployment in diverse locations including areas without grid access.
Solution Approach 2:
The docking system is designed to perform multiple functions: securing e-bikes via the lock arrangement and providing wireless charging via the charging arrangement. The onboard power supply enables the system to operate autonomously, making it universally applicable in various locations regardless of power infrastructure availability.
2Reliability
If the lock arrangement is designed to be fail-safe (locked during power failure), then e-bikes remain secured during power interruptions, but the lock may not be able to release when power is restored
Solution Approach 1:
The lock arrangement is designed with dynamic characteristics where its state changes based on power availability. During normal operation, it can be unlocked; during power failure, it automatically transitions to a locked state for security. The system manages these state transitions dynamically to balance security and operability.
Solution Approach 2:
The lock arrangement is designed to automatically engage the locked position in anticipation of potential security risks during power failures. This preliminary protective action ensures e-bikes remain secured during interruptions, and the system manages power restoration to enable subsequent release.
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
The system enables fast, secure, and flexible e-bike charging and securement, allowing for greater coverage and use in diverse locations, including areas without access to mains power, while ensuring e-bikes remain secured during power failures.
Implementation Method 1
The power supply may comprise or take the form of a photovoltaic power supply. The photovoltaic power supply may comprise or take the form of one or more solar panels.
Implementation Method 2
a wireless charging arrangement for supplying electrical power to the one or more e-bikes when secured to the docking system
Data Source
AI summary
An e-bike docking system comprises a docking arrangement for receiving and releasably coupling one or more e-bike to the docking system and a wireless charging arrangement for supplying electrical power to the one or more e-bikes when secured to the docking system. The docking arrangement comprises a lock arrangement for releasably securing the one or more e-bikes to the docking system. The docking system is configured such that when the lock arrangement is engaged, the wireless charging arrangement is positioned relative to the e-bike so as to facilitate the wireless charging of a rechargeable battery of the e-bike.