The present invention discloses a method for interlocking a shared bicycle and an intelligent safety helmet, and the method comprises the following steps: (1) providing an electronic frame lock and an intelligent safety helmet for using cooperatively on a shared bicycle respectively, interlocking both of them when the shared bicycle is parked; (2) checking the current state information of an electric lock and a safety helmet lock simultaneously when a user uses the mobile intelligent terminal to scan the shared bicycle; (3) unlocking of the electric lock and the safety helmet lock when the verification is passed; (4) wearing an intelligent safety helmet before using the bicycle; (5) beginning to record the trip information by the intelligent helmet after the user puts on the intelligent safety helmet; (6) stopping the voice broadcast function and terminating the recording of the trip information when the state information of the electronic frame lock and the safety helmet lock which is checked shows that the electronic frame lock and the safety helmet lock are locked, after the user terminates the using of the bike. The invention also discloses an interlocking device for a shared bicycle and an intelligent safety helmet implementing the above-mentioned method, which makes that the bicycle and the intelligent safety helmet are always in a state that they are used in cooperation with each other.

A bicycle-sharing system includes bicycles having beacons mounted thereto. Sensors are distributed throughout an urban environment and detect the beacons. Stations report check-in and check-out of the bicycles. Using reported detections of the bicycles and the check-in and check-out locations, a trajectory of the bicycle is determined. Where multiple sensors detect the beacon at a time, triangulation may be performed to more accurately determine the bicycle location. Trajectories of bicycles may be used for planning purposes or to track stolen or mislaid bicycles.

A bicycle rental system includes a plurality of rental bicycles, each of which has a locking apparatus, a controlling apparatus, and a parking locker. The locking apparatus is operated to lock the rental bicycle, and the parking locker is able to engage and lock a dock locker of the dock. The controlling apparatus transmits signals to a control system, and receives signals from the control system through a network. The bicycle rental system may return the rental bicycle with or without the docks, and may rent the rental bicycle by a mobile device or a tag device.

An electric vehicle fastening and charging combined system for a charging and storage station, such as those used for bicycle or scooter sharing programs, where a multi-purpose cable extends between the charging and storage station and the electric vehicle, and serves to fasten the electric vehicle to the charging and storage station to prevent removal or theft of the electric vehicle, and to conduct electricity to charge the electric vehicle, and wherein the fastening and/or detaching of the cable is controlled by a wireless signal.

A modular vehicle system is provided, comprising an electric vehicle, particularly a light electric vehicle, with at least a control device; an on-board power supply system for energy supply of an electric drive unit; an interface, connected to the on-board power supply system for connection of at least one module; and first locking means arranged at the interface. The modular vehicle system further comprising a module, with a module control, configured to communicate with the control device; an electric arrangement; a connecting element, separably connectable to the interface, for connection of the electric arrangement with the on-board power supply system; and second locking means arranged at the connecting element, formed for engagement with the first locking means, wherein at least one of the locking means is movable between a free position and a locking position. To increase the safety of operating the system, the module control is configured to send an identification signal to the control device upon connection of the connecting element to the interface; and the control device is configured to receive the identification signal, to compare the identification signal with at least one compatibility parameter, and in case that the identification signal corresponds to the compatibility parameter, to send an activation signal to at least one switch unit to connect the electric arrangement with the on-board power supply system.

A docking station comprises a connector for releasably connecting a motorised vehicle; and a charging unit that is joined to the connector for supplying resource to the motorised vehicle through the connector. Optionally, the docking station comprises a holder for receiving a scooter; and a hub connector for connecting the scooter. The holder preferably comprises a lock for fastening the scooter, whilst the lock is preferably configured to detachably receive or release the scooter.

A mobility for storing a personal transportation includes a first storage unit formed on a side of the mobility and configured for storing the personal transportation therein without folding thereof; a second storage unit formed on a side of the mobility and configured for storing the personal transportation therein after the personal transportation is folded; a controller configured to control the first storage unit and the second storage unit in response to a mobility user's request; and a server configured to receive information related to whether the first storage unit and the second storage unit are used, and a remaining battery capacity, use time, and movable distance of the stored personal transportation from the controller, and to communicate with the mobility user.

There is provided a method and apparatus for requesting a battery to be unlocked from an e-vehicle using an application for authorizing a user to unlock the battery. A request is received at a cloud-based server, to unlock the battery from the micro mobility vehicle. Authorisation data is provided, by the cloud-based server, if the user making the request is permitted to unlock the battery at the e-vehicle. Further, methods and apparatus for controlling a self-serviced battery swap station by a cloud-based server are described. In one example battery data may be obtained from a cloud-connected battery swap station and used to generate battery charging control data. In one example, the battery charging control data is sent to the battery swap station.

A bicycle locking assembly includes a bicycle rack is secured to a support surface and a plurality of parking elements each is integrated into the bicycle rack to have a respective bicycle parked in the parking elements. A plurality of bicycle locks is each movably integrated into the bicycle rack for locking a respective bicycle to a respective parking element. A card reader is coupled to the bicycle rack for processing a payment to facilitate a user to lock their bicycle to the bicycle rack. A camera is integrated into the bicycle rack to record footage of the bicycle rack thereby monitoring bicycles that are locked to the bicycle rack. A light emitter is coupled to the bicycle rack to emit light outwardly from the bicycle rack for enhancing visibility of the bicycle rack at night.

A motorised scooter comprises a framework for supporting a rider; a ground engaging element connected to the framework for moving the rider; an engine connected to the ground engaging element for propelling the ground engaging element; and a brake further connected to the framework, the ground engaging element, the engine or a combination of any these for stopping the motorised scooter. A method for using the motorised scooter comprises a step of a first step of receiving a request to use at least one motorised scooter; a second step of notifying location of the at least one suitable motorised scooter; a third step of offering the at least one suitable motorised scooter; and a fourth step of getting back the at least one suitable motorised scooter.