WO2020048258A1

WO2020048258A1 - Mobile power supply charging module, rental device and mobile power supply

Info

Publication number: WO2020048258A1
Application number: PCT/CN2019/098339
Authority: WO
Inventors: 袁冰松; 张鹏程; 庄琼鹰; 唐保明; 叶小毅; 余伟铬; 李德明; 郑晓伟
Original assignee: 深圳来电科技有限公司
Priority date: 2018-09-06
Filing date: 2019-07-30
Publication date: 2020-03-12
Also published as: CN110298973A; CN111092462A; CN211296212U; CN210983601U; CN110298973B; CN110443958A; CN110349350A; CN110298975A; CN110298974A; CN110503779A; WO2020048260A1; CN211044399U; CN211044397U; CN209895437U; CN212627182U; CN211044398U; CN109410455A; CN110298976A; WO2020048261A1

Abstract

Provided are a mobile power supply charging module (100), a rental device and a mobile power supply (300). The charging module (100) comprises a control module (21) and a contact-less communication apparatus that is connected to the control module (21), and the charging module (100) forms a contact-less transmission data mode by means of the connection between the contact-less communication apparatus and a contact-less communication apparatus disposed on the mobile power supply (300) that is inserted within a bin channel (10), thereby transmitting data between the charging module (100) and the mobile power supply (300) that is a module within the bin channel (10).

Description

Mobile power charging module, rental equipment and mobile power

Technical field

The invention relates to the field of charging equipment, in particular to a mobile power charging module, a rental device and a mobile power source.

Background technique

In the prior art mobile power rental device, the module's thimble is in contact with the metal contacts on the mobile power to realize information reading and charging. However, the thimble and metal contacts will age over time, and the contacts on the mobile power supply are prone to dust or dirt as they are used for a long time, resulting in poor contact with the thimble, and the mobile power rental equipment fails to read the information. problem. Over time, the aging of the thimble and the cleaning of the metal contacts are not in place. The problem of unsuccessful reading of information caused by poor contact will bring huge trouble to the operation and maintenance of the device. With the large-scale deployment of mobile power rental equipment, equipment aging or poor contact, the system does not recognize the returned mobile power after it is rented, resulting in back-end orders that cannot be automatically ended, continuous deductions, and customer complaints.

Summary of the Invention

The technical problem to be solved by the present invention is to provide a new type of mobile power charging module, mobile power and mobile power rental equipment to overcome the problem that the mobile power rental equipment fails to read information in the prior art.

To solve the above technical problems, the present invention adopts the following technical solutions:

A mobile power charging module includes a casing, and a casing is provided on the casing for accommodating the mobile power and for charging and entering and exiting the mobile power. The charging module further includes a control module and a non-contact type connected to the control module. Communication device, the charging module forms a non-contact data transmission mode through the connection between the non-contact communication device and the non-contact communication device provided on the mobile power supply inserted in the silo, thereby realizing the charging module and the module silo. Data between mobile power banks.

In some embodiments of the charging module, the non-contact communication device includes one or more of an infrared communication device, a Bluetooth communication device, an NFC communication device, a WIFI communication device, and an RFID communication device; The contact communication device package receiving module is used for receiving data transmitted by the transmitting module of the contactless communication device of the mobile power supply; the contactless communication device of the charging module further includes a transmitting module for contactless communication to the mobile power supply The receiving module of the device transmits data.

In some embodiments of the charging module, the mobile power charging module further includes a communication interface connected to the control module, and the charging module is formed by a contact connection between the charging module and a communication interface provided on the mobile power inserted into the silo through the communication interface. Contact data transmission mode;

The charging module is configured such that the non-contact data transmission mode and the contact data transmission mode coexist or select an appropriate method to realize data transmission between the charging module and the mobile power source in the module bin;

The data transmitted in the contact data transmission mode and / or the contactless data transmission mode include instructions and / or mobile power information.

In some embodiments of the charging module, the method of transmitting data between the charging module and the mobile power source in the module silo is configured as:

Contact data transmission mode and contactless data transmission mode coexist simultaneously; or

Preferentially select a contact data transmission mode and an alternative contactless data transmission mode; or,

Priority contactless data transmission mode, alternative contact data transmission mode; or,

Either the contact data transmission mode or the non-contact data transmission mode is used for data transmission on the principle of random selection or competition selection;

The mobile power information transmitted in the contact data transmission mode and / or the contactless data transmission mode includes one or more of identity information, version number, and mobile power status information of the mobile power.

In some embodiments, the contact power transmission data mode and / or contactless transmission of mobile power status information includes power of the mobile power, power temperature, charging current, number of uses, mobile power output function switch status, mobile power failure information, mobile One or more of the working status information of the components of the power supply; the non-contact transmission data mode and the contact transmission data mode transmit the same data; the transmitted mobile power information is sent by the mobile power control module to the contactless Communication device and / or communication interface;

The data transmission instruction includes: the charging module control module transmitting an instruction to the mobile power control module to instruct the mobile power control module to send mobile power information; or

The charging module control module transmits to the mobile power control module an operation instruction instructing the mobile power control module to perform the function of encrypting or decrypting the power output of the mobile power.

In some embodiments of the charging module, the charging module uses a non-contact data transmission mode and / or a contact data transmission mode to transmit data to and from a mobile power source in the module silo. The operation procedures thus implemented include:

The contactless communication device through the charging module adopts a contactless data transmission mode, and / or its communication interface adopts a contact data transmission mode to read mobile power information, and the control module further sends the read mobile power information to The general control center of mobile power rental equipment, the general control center or server further completes the return or lending procedure of mobile power; or

The charging module uses the contactless data transmission mode according to its contactless communication device, and / or its communication interface adopts the contact data transmission mode to read whether the mobile power source information has failed, and sends the information that the mobile power source information fails to the mobile device. The general control center of the power rental equipment, so that the general control center or further reports the fault information to the server; or

The contactless communication device of the charging module adopts a contactless data transmission mode, and / or, its communication interface adopts a contact data transmission mode, and sends an instruction to the mobile power source to encrypt or decrypt the power output function of the mobile power source, thereby executing the mobile power source. A program to turn off the power output function after returning or a program to turn on the power output function before lending the mobile power.

In some embodiments of the charging module, the charging module includes a charging interface connected to the control module, and the charging interface of the charging module is used to electrically connect with the charging interface of the mobile power supply in the silo to carry out the mobile power supply. Charging; the communication interface and / or charging interface of the charging module is a contact interface, and the mobile power supply in the module is correspondingly provided with a matching contact interface; the contact interface of the charging module includes a spring pin or a rigid interface.

In some embodiments of the charging module, the hard interface includes one or more of a hard thimble, a Type-C interface, a Micro USB interface, a contact interface, a Lightning interface, or a DC interface; the control module is provided for charging The control motherboard of the module; the communication interface and / or the charging interface of the charging module are set on the control motherboard; a thimble contact and / or a contact between the interface of the charging module and the interface of the mobile power supply in the module And / or interface between the male and female heads, so that the charging module charges the mobile power source or transmits data to and from the mobile power source; the housing of the charging module is provided with a guide for assembling a communication interface and / or a charging interface. A positioning structure, which includes one or more of a guiding positioning column, a guiding positioning hole, a screw fixing, a slot, and a guiding inclined surface structure.

In some embodiments of the charging module, the communication interface of the charging module is a thimble; the communication thimble of the charging module is in contact with the contacts of the mobile power source to form a thimble contact contact data transmission mode.

In some embodiments, the contactless communication device and / or the communication interface is disposed at the position of the charging module so that the mobile power source faces upward with either of its front and back sides, and / or with its front and rear ends facing inward Inserted into the silo, the contactless communication device of the charging module and the contactless communication device of the mobile power supply form the contactless data transmission mode, and / or, the communication interface of the charging module and the communication interface of the mobile power supply Form a contact data transmission mode.

In some embodiments, the location of the contactless communication device at the charging module includes:

The charging module includes two non-contact communication devices that are symmetrically disposed on one or both sides of opposite sides of the charging module bin, or are symmetrically disposed on one or both sides of opposite sides, or are symmetrically disposed on one end or ends of opposite ends, or At both ends, the adapted mobile power source includes a non-contact communication device disposed on either side of the opposite sides of the mobile power source, or on either side of the opposite two sides, or at a corresponding position on either end of the opposite ends; or

The charging module includes a non-contact communication device which is set at a non-center point on either side, or on either side, or at either end of the charging module silo. The adaptable mobile power source includes two non-contact communication devices. Symmetrically disposed on one or both sides of the opposite sides of the mobile power source, or one or both sides of the opposite sides, or one or both ends of the opposite ends; or

The charging module includes a non-contact communication device located at the center point of either side, or any side, or at either end of the charging module silo. The adaptable mobile power source includes a non-contact communication device located at On either side of the opposite sides of the mobile power source, or on either side of the opposite sides, or on the center point of either end of the opposite ends.

In some embodiments of the charging module, the non-contact communication device is an RFID communication device, and the non-contact transmission data mode corresponds to the RFID communication device of the charging module and the RFID communication set on the mobile power supply in the silo. The inductive connection between the devices forms the RFID communication transmission data mode; the charging module is configured to co-exist or select an appropriate mode with the RFID communication transmission data mode and the contact transmission data mode, thereby realizing the charging module and the module silo. Data between mobile power sources; the data includes mobile power information or instructions.

In some embodiments of the charging module, the non-contact communication device is an infrared communication device, and the non-contact transmission data mode corresponds to the infrared communication device of the charging module and the infrared communication set on the mobile power supply in the silo. The connection between the devices forms an infrared communication transmission data mode; the charging module is configured to co-exist or select an applicable method with the infrared communication transmission data mode and the contact transmission data mode, thereby realizing the Transfer data between mobile power sources; the infrared communication device of the charging module includes an infrared receiving module for transmitting data with the transmitting module of the infrared communication device of the mobile power source; the infrared communication device of the charging module also includes an infrared transmitting module, Data is transmitted between the infrared receiving module of the infrared communication device of the mobile power source, and the data includes mobile power source information or instructions.

In some embodiments of the charging module, the way of transmitting data between the charging module and the mobile power source in the module silo is configured as: contact data transmission mode and infrared communication transmission data mode coexist simultaneously; or,

Preferentially select the contact data transmission mode and the infrared communication transmission data mode; or,

Preferentially select the infrared communication transmission data mode and the contact transmission data mode; or

Either the contact data transmission mode or the infrared communication transmission data mode is used for data transmission in a randomly selected or competitively selected manner.

In some embodiments of the charging module, the interface of the charging module includes two or more thimbles; the charging interface of the charging module is a charging thimble; the communication interface of the charging module is a communication thimble; the contact transmission The data mode is a thimble contact contact data transmission mode formed by the communication thimble of the charging module and the contact of the mobile power source. The data transmission mode between the charging module and the mobile power source in the module bay is configured as:

The thimble contact contact data transmission mode and the infrared communication transmission data mode coexist simultaneously; or

Preference is given to the contact data transmission mode of the thimble contact, the alternative infrared communication data transmission mode; or,

Preferentially select the infrared communication transmission data mode and the thimble contact contact data transmission mode; or

Either the thimble contact contact data transmission mode or the infrared communication transmission data mode is used for data transmission on the principle of random selection or competition selection.

In some embodiments of the charging module, the charging module further includes an anti-light interference structure. The anti-light interference structure includes: setting an infrared communication device to shorten the infrared light signal transmission distance, and avoiding the light by the infrared communication device facing inward. One or more of the following are installed on the housing of the charging module, an isolation installation bin, a partition to isolate the installation bin and aisle, a light blocking plate, a semi-closed space of an infrared communication device, or a filter.

In some embodiments of the charging module, the infrared communication device is located near the corresponding infrared communication device on the mobile power source in the silo; one end of the infrared communication device is located on the module housing near the side facing the incident external light. There is a light blocking plate, which is used to isolate and resist infrared light from the infrared communication device; the infrared communication device is installed in a semi-enclosed space formed on the housing, and the semi-enclosed space leaves an exit for infrared signal transmission; on the housing of the charging module The filter is set, and the infrared communication device is located behind the filter; the filter is set in the infrared light transmission path, and the infrared light is received by the target receiving module after being filtered by the filter during transmission; the infrared communication device is set at Infrared control PCB, the infrared control PCB is installed on the housing of the charging module; the infrared control PCB is fixedly located on the housing of the charging module through a positioning structure; the positioning structure includes a positioning column / positioning hole cooperation structure One or more of a screw-fixed positioning structure, a limiting surface support positioning structure, and a card slot positioning structure.

In some embodiments, the infrared communication device and / or communication interface of the charging module is disposed at a position of the charging module so that the mobile power source faces up on either of its front and back sides and / or on either end of its front and rear ends Insert into the silo in the direction, the infrared communication device of the charging module and the infrared communication device of the mobile power supply form the infrared communication transmission data, and / or the communication interface of the charging module and the communication interface of the mobile power supply are formed Contact data transmission.

In some embodiments of the charging module, the configuration methods for forming infrared communication and transmitting data between the charging module and the mobile power source inserted in the silo include:

The charging module includes two infrared communication devices symmetrically arranged on one or both sides of the silo parallel to the direction in which the mobile power source is moved in and out, and the adapted mobile power source includes an infrared communication device disposed at the corresponding position on one side of both sides of the mobile power source. ;or

The charging module includes an infrared communication device disposed on one side of both sides of the silo, and the adapted mobile power source includes two infrared communication devices respectively disposed on one side or two corresponding positions of the mobile power source; or

The charging module includes an infrared communication device disposed on one side of the top and bottom surfaces of the silo, and the adapted mobile power source includes two infrared communication devices disposed on one or both sides of the mobile power source at the corresponding positions; or

The charging module includes two infrared communication devices symmetrically disposed on one or both sides of the top and bottom surfaces of the silo, and the adapted mobile power source includes an infrared communication device disposed on a corresponding position on one of the front and back sides; or

The charging module includes two infrared communication devices symmetrically disposed at one end or both ends of the front and rear ends of the silo, and the adapted mobile power source includes an infrared communication device disposed at a corresponding position at one end of the front and rear ends; or

The charging module includes an infrared communication device disposed at one end of the front and rear ends of the silo, and the adapted mobile power source includes two infrared communication devices disposed symmetrically at one or both ends of the front and rear ends of the mobile power source; or

An infrared communication device is provided at the center point of at least one of the sides of the charging module silo, the top and bottom surfaces, and the corresponding front and rear ends. The center point of at least one of the six sides of the mobile power supply inserted into the charging module silo. There is an infrared communication device.

The present invention also provides a mobile power rental equipment, including a general control center. The mobile power rental equipment further includes a plurality of mobile power charging modules as described above; the control module of each charging module is connected to the general control center.

The present invention also provides a mobile power source, which includes a casing and a battery core in the casing, a control module, and a charging interface. The mobile power source further includes a non-contact communication device; a cell of the mobile power source, a non-contact communication device, and charging. The interface is respectively electrically connected to the control module of the mobile power supply; the charging interface of the mobile power is used to connect with the charging interface of the charging module where the mobile power is located to realize charging of the mobile power; the non-contact communication device of the mobile power is used to connect to the charging module The data transmitted between the non-contact communication devices of the mobile phone forms a non-contact communication transmission data mode; the control module controls the non-contact communication device of the mobile power supply to transmit data to the charging module.

In some embodiments of the mobile power source, the non-contact communication device includes one or more of an infrared communication device, a Bluetooth communication device, an NFC communication device, a WIFI communication device, and an RFID communication device; a non-contact type of the mobile power source The communication device package receiving module is used for receiving data transmitted by the transmission module of the contactless communication device of the charging module; the contactless communication device of the mobile power supply further includes a transmission module for contactless communication device of the charging module The receiving module transmits data.

In some embodiments of the mobile power source, the mobile power source further includes a communication interface connected to the control module for contacting and connecting with a communication interface provided on a charging module where the mobile power source is located to form a contact data transmission mode; The control module controls the contact communication device of the mobile power source to transmit data to the charging module; the mobile power source is configured to realize the movement in a coexisting or selected applicable manner in the contactless data transmission mode and the contact data transmission mode. Data is transmitted between the power supply and the charging module where it is located;

The data transmitted in the contact data transmission mode and / or the contactless data transmission mode include instructions and / or mobile power information; the control module of the mobile power executes the received instructions, and / or transmits the execution instructions to the control module of the charging module. And / or transmitting mobile power information to the control module of the charging module.

In some embodiments of the mobile power source, the mobile power source information transmitted in the contact data transmission mode and / or the contactless data transmission mode includes one or more of identity information, version number, and mobile power status information of the mobile power source; The mobile power status information transmitted includes one or more of the power of the mobile power, the power temperature, the charging current, the number of uses, the status of the mobile power output function switch, the mobile power failure information, and the working status information of the components of the mobile power; The contact data transmission mode and the contact data transmission mode transmit the same data;

The mobile power information is stored in a mobile power control module, and the mobile power control module transmits mobile power information to the non-contact communication device and / or communication interface of the mobile power, and the non-contact type of the charging module where the mobile power is located. The communication device and / or the communication interface are correspondingly received and transmitted to the control module of the charging module.

In some embodiments, the communication interface and / or charging interface of the mobile power supply is a contact interface, and the contact interface includes a thimble, a Type-C interface, a Micro USB interface, a contact interface, a Lightning interface, or a DC interface. One or more of them; the control module is a single chip microcomputer of a mobile power supply.

In some embodiments of the mobile power source, the interface of the mobile power source is a contact, and the interface of the charging module includes a charging thimble and / or a communication thimble. The contact of the mobile power source is in contact with the charging thimble of the charging module to achieve the movement of the charging module. When the power is charged, the contacts of the mobile power source contact the communication thimble of the charging module to form a mode of thimble contact contact data transmission; the number of contacts is two or more.

In some embodiments of the mobile power source, the non-contact communication device and / or the communication interface is disposed at the position of the mobile power source so that the mobile power source faces upward with either of its front and back sides, and / or with its front and rear ends facing inward The charging direction is inserted into the silo corresponding to the charging module, the contactless data transmission mode of the mobile power source and the contactless communication device of the charging module form the contactless data transmission mode, and / or, the communication interface of the mobile power source Form a contact data transmission mode with the communication interface of the charging module.

In some embodiments of the mobile power source, the positions where the contactless communication device is disposed on the mobile power source include:

The mobile power source includes two non-contact communication devices symmetrically disposed on one or both sides of the opposite sides of the mobile power source, or on one or both sides of the opposite two sides, or on one or both sides of the opposite ends. The adapted charging module includes There is a non-contact communication device set on either side, or on either side, or the corresponding position of either end of the charging module silo; or

The mobile power supply includes a non-contact communication device which is disposed at a non-center position on either side of the opposite sides of the mobile power supply, or on either side of the opposite two sides, or on either end of the opposite ends. The adapted charging module includes two The non-contact communication device is symmetrically disposed on one or both sides of the opposite sides of the charging module silo, or symmetrically disposed on one or both sides of the opposite two sides, or symmetrically disposed on one end or two opposite ends of the opposite ends; or

The mobile power supply includes a non-contact communication device disposed on the center point of either of the two sides of the mobile power supply, or on either of the two opposite sides, or on the center of either end of the two opposite ends. The adapted charging module includes a non-contact The contact-type communication device is disposed at the center point of any side, or surface, or at either end of the charging module silo.

As an embodiment, the non-contact communication device is an RFID communication device, and the RFID communication device of the mobile power supply is used to transmit data with the RFID communication device of the charging module.

In some embodiments of the mobile power source, the non-contact communication device is an infrared communication device; the infrared communication device of the mobile power source includes an infrared transmitting module, which is used for receiving modules of the infrared communication device of the charging module where the mobile power source is located. The infrared communication device of the mobile power supply also includes an infrared receiving module for transmitting data to and from the infrared transmitting module of the infrared communication device of the charging module where it is located.

The beneficial effects of the present invention are:

The charging module of the present invention uses contact and non-contact communication technologies with a non-contact communication device for information communication, reads information, responds quickly and sensitively, reads information accurately, has a higher recognition rate, and is less susceptible to interference. With alternative mechanisms. Reliability and stability are also higher.

The charger module of the present invention has two alternative mechanisms for transmitting data, and has higher reliability and stability.

At the same time, the charger module of the present invention can achieve mutual compatibility with the existing shared mobile power rental equipment on the market, reducing the one-time cost caused by the brand technology upgrade and the time required to replace the old equipment in a one-time comprehensive upgrade. Periodic issues.

The present invention is described in further detail below with reference to the drawings.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG. 1 is a functional block diagram of a charging module of a mobile power rental device according to a first embodiment of the present invention.

FIG. 2 is a flowchart of a data transmission method between a charging module of a mobile power rental device and a mobile power supply according to the first embodiment of the present invention.

FIG. 3 is a functional module block diagram of a charging module of the mobile power rental device provided by the second embodiment of the present invention.

FIG. 4 is a flowchart of a data transmission method between a charging module of a mobile power rental device and a mobile power supply according to a second embodiment of the present invention.

FIG. 5 is a perspective view of a charging module according to an embodiment of the present invention.

FIG. 6 is an exploded view of a part of the structure corresponding to FIG. 5.

FIG. 7 is an exploded view of another structure of a charging module according to an embodiment of the present invention.

FIG. 8 is a schematic structural diagram of a mobile power source according to an embodiment of the present invention, wherein FIG. 8 (a) is a schematic diagram of the entire structure, and FIG. 8 (b) is a schematic diagram of the internal structure.

FIG. 9 is an exploded view of a structure of a charging module with a mobile power source according to an embodiment of the present invention.

FIG. 10 is a partial structural exploded view of the other structure of FIG. 9.

FIG. 11 is a perspective view of a charging module with a mobile power source according to an embodiment of the present invention.

FIG. 12 is an exploded view corresponding to FIG. 11.

FIG. 13 is a top view of a mobile power rental device according to an embodiment of the present invention.

14 is a perspective view of a mobile power source used in a charging unit of the rental device shown in FIG. 13.

15 is a cross-sectional view of a mobile power rental device according to an embodiment of the present invention.

detailed description

It should be noted that, in the case of no conflict, the embodiments and features in the embodiments of the present application can be combined with each other. The present invention will be further described in detail below with reference to the accompanying drawings and specific embodiments.

In the mobile power rental device of the present invention, the host is provided with a plurality of repeated charging units, namely a charging module. The charging module uses non-contact communication to send and receive data. The charging module is provided with a non-contact communication device, which is inserted into the charging The mobile power supply in the module silo can also be equipped with a contactless communication device. A contactless communication connection is formed between the charging module and the mobile power supply for data transmission, and a contactless data transmission mode is formed to realize instruction sending and information reading. / Report / Feedback, etc. Non-contact communication technologies include infrared transmission, Bluetooth transmission, NFC technology, WIFI technology, RFID technology, etc., to achieve information exchange between the charging module and mobile power. The charging module and the mobile power supply are provided with non-contact communication devices correspondingly, and send and receive data information by mutual induction. The contactless communication device package receiving module of the charging module is used for receiving data transmitted by the transmitting module of the contactless communication device of the mobile power supply; the contactless communication device of the charging module further includes a transmitting module for transmitting to the mobile power supply. The receiving module of the contactless communication device transmits data.

The general control center or server of the mobile power rental equipment sends instructions to the control module of the charging module. The control module of the charging module is connected to the non-contact communication device of the power supply through the module non-contact communication device to the control module of the mobile power supply. Transmission instructions, such as instructing the mobile power to send mobile power related information to the module. At this time, the mobile power control module receives the instruction information through the contactless communication device and sends the execution instruction to the charging module control module through the power contactless communication device. Specific related data, such as sending mobile power related information, the charging module control module receives the relevant information through the module's non-contact communication device, which can be further transmitted to the mobile power rental equipment's general control center or server for data Processing, including confirmation of mobile power related information, failure reporting, etc., so as to complete the operation of returning or lending mobile power, or perform failure reporting, etc., and other functions can also be performed as required.

The data transmitted in the non-contact transmission data mode includes, but is not limited to, mobile power information or instructions or instruction execution result information.

Further, the data transmitted in the non-contact transmission data mode includes, but is not limited to, identity information or mobile power status information of the mobile power source. The mobile power identity information includes mobile power ID / SN code or other identification information. The mobile power status information transmitted includes, but is not limited to, one or more of mobile power capacity, power temperature, charging current, usage times, mobile power power output function switch status, mobile power failure information, and working status information of components of the mobile power supply. Species. The working states of the components of the mobile power source include, but are not limited to, the working states of the functional cells such as the battery core of the mobile power source, the control module (the control circuit board or the single-chip microcomputer of the mobile power source), and the interface.

The charging module adopts a non-contact transmission data mode to transmit data between the mobile power source in the module silo, and the operation procedures thus implemented include:

The non-contact communication device of the charging module uses the non-contact transmission data mode to read the mobile power information. The control module further sends the read mobile power information to the general control center of the mobile power rental equipment. The general control center or server Further complete the return or loan procedure of the mobile power supply; or

The charging module uses the contactless data transmission mode to read whether the mobile power source information fails according to its contactless communication device, and sends the information that fails to read the mobile power source information to the general control center of the mobile power rental equipment, so that the general control center Or further report fault information to the server; or

The non-contact communication device of the charging module uses the non-contact data transmission mode to send a command to the mobile power source to turn off or turn on the power output function of the mobile power source, thereby executing the program of turning off the power output function after the mobile power source is returned or turning on the power before the mobile power source is lent. Output function program.

As an embodiment, the non-contact communication uses infrared communication technology, and an infrared communication device is correspondingly provided on the charging module and the mobile power supply. The infrared communication device needs to be equipped with at least one infrared receiving module or at least one infrared transmitting module. For example, an infrared receiving module configured on the charging module receives data sent by the infrared transmitting module of the mobile power source, and the infrared transmitting module of the charging module sends data such as instructions to the infrared receiving module of the mobile power source. The installation positions of the infrared receiving module and the infrared transmitting module of the charging module correspond to the infrared transmitting module and the infrared receiving module of the infrared communication device on the mobile power supply respectively, and the target receiving module is within the radiation range of the infrared signal of the transmitting module.

With reference to FIGS. 1-15, the mobile power charging module 100 according to the embodiment of the present invention is installed in or directly installed in a charging unit installation cabin of a host of a mobile power rental device. The wireless communication device / non-contact communication device can be used for information transmission between the charging module 100 and the mobile power source 300. The infrared transmission technology using the infrared communication device 223 as an example is used to illustrate the implementation of the wireless communication device / non-contact communication device. Data is transmitted between the charging module 100 and the mobile power source 300.

The charging module 100 is equipped with

infrared communication devices

223 and 310 corresponding to the mobile power source 300. The installation positions of the infrared receiving module 23 and the infrared transmitting module 22 of the charging module correspond to the infrared transmitting module and the infrared receiving module on the mobile power supply. After the mobile power is inserted into the silo, the mobile power infrared communication device 310 and the module infrared communication device 223 are located in the infrared signal radiation range and can transmit data to each other. The module control motherboard (or control module) 21 controls the infrared transmitting module 22 to send a first optical signal to the mobile power source 300. The infrared receiving module on the mobile power source 300 receives the optical signal and feeds back the signal to the mobile power control module (mobile power source). Control circuit board or single-chip microcomputer), the mobile power control module receives the light signal, and controls the infrared transmitting module on the mobile power to send carrying relevant information such as mobile power identity information or mobile power status information (mobile power status information includes mobile power power (Power supply temperature, charging current, number of uses, mobile power power output function switch status, mobile power failure information, mobile power component working status information), the second optical signal to the charging module. Infrared receiving module 23, the infrared receiving module 23 on the charging module receives the optical signal and reads the related information data, and reports the read data to the rental equipment general control center or server via the control module 21 on the charging module This completes the reading of mobile power identity information such as ID / SN code or other information. In other examples, the first optical signal is sent for transmitting instructions, the charging module instructs the mobile power source to execute the command through the infrared communication device 223, and the infrared receiving module of the mobile power source executes the instruction after receiving the first optical signal instruction, and / Or report the result of executing the instruction to the charging module 100. The transmission of instructions, reading information, feedback information or reporting information is realized through the infrared communication transmission data mode between the charging module and the mobile power supply.

The infrared communication device includes an infrared transmitting module and an infrared receiving module. The charging module 100 is provided with at least one infrared communication device 223, and one or both sides of the charging module are provided with the infrared communication device 223. The infrared communication device 223 includes an infrared transmitting module 22 and an infrared receiving module 23. The mobile power source 300 is correspondingly provided with an infrared communication device 310 (refer to FIG. 8). The infrared communication device 310 includes an infrared transmitting module and an infrared receiving module. When the mobile power source is inserted into the charging module bin 10, the infrared communication device 310 of the mobile power source corresponds to the position of the infrared communication device 223 of the module, and data is transmitted by mutual induction.

In the same

infrared communication device

223 or 310, in order to prevent the infrared signal emitted by the transmitting module from being received by its own receiving module, its own receiving module can be turned off during transmission.

The non-contact communication method can also use RFID communication technology to transmit data. RFID communication devices are installed on the charging module and mobile power supply correspondingly, and data is transmitted between RFID communication devices. The module RFID communication device is connected to the module control module 21, and the RFID communication device of the mobile power is electrically connected to the control module of the mobile power.

When lending mobile power: When renting mobile power, the user first sends a mobile power rental request to the server by scanning the code. The server receives the request, obtains the identification code of the mobile power rental device according to the request, and orders the device to report mobile power information. The equipment general control center commands the control module of each charging module to report the above information. The control module of the charging module controls the RFID communication device to report the mobile power information command to the RFID communication device of the mobile power in the silo. The mobile power control module executes the command after receiving the instruction through the RFID communication device of the power supply, that is, the mobile power control module obtains After the mobile power information is controlled, the RFID communication device controls the RFID communication device to send to the module's control module. The module control module further sends the mobile power information to the equipment general control center, which reports to the server. The server receives the mobile power information and performs Comprehensively judge, select the mobile power supply with the best comprehensive conditions, and notify the equipment general control center to pop up the mobile power supply.

If the power output function of the mobile power supply in the warehouse has been encrypted, that is, the power output function is turned off, the power output function of the mobile power supply must be decrypted before the pop-up, that is, the power output function is turned on, and the power output function of the mobile power supply is decrypted and turned on. It can be used to provide charging services to user terminals, and encrypted mobile power cannot provide charging to external electronic products. The equipment general control center receives the instruction, and instructs the corresponding module control module 21 to decrypt the mobile power source first. The module control module 21 controls the RFID communication device to send an instruction to decrypt the mobile power source to the RFID communication device on the mobile power source. After receiving the instruction through the RFID communication device, the control module executes the instruction, decrypts the mobile power, and sends the information of the decryption execution result to the RFID communication device of the module via the RFID communication device. The RFID communication device receives the signal and feeds it back to the module. The group control module 21, the module control module 21 receives the decryption success signal, and finally completes the procedure of ejecting the mobile power supply. The user removes the ejected mobile power supply. The module control module 21 where the mobile power supply is located reports the mobile power supply successfully loaned to the device The control center and the equipment general control center send a signal that the mobile power source is successfully loaned to the server. The server receives the signal and sends a lease success message to the user's mobile terminal.

When returning the mobile power: The user inserts the mobile power on the mobile power rental device through the return button on the mobile terminal or the device, or directly inserts the mobile power into the charging channel 10 of the charging module. The device detects the return of the mobile power. Or when the return signal of the mobile power is received, the corresponding module control module 21 sends a command to the RFID communication device of the mobile power through the corresponding RFID communication device, and requests the mobile power to report the identity information of the mobile power such as ID / SN number, the control module of the mobile power After receiving the instruction through the RFID communication device, the instruction is executed, and the mobile power identity information such as the mobile power ID / SN code is sent to the charging module through the RFID communication device. The RFID communication device on the module receives the mobile power identity information and transmits the information to Module control module 21, module control module 21 receives the mobile power ID / SN information reported by the RFID communication device, and sends it to the general equipment control center. The general equipment control center receives this information and sends it to the server. The server receives the mobile power ID / SN information, sending mobile power return to the user terminal corresponding to the mobile power Tips for success.

In addition, if the returned mobile power needs to encrypt the power output function, the server and / or the rental equipment general control center and / or the module control module 21 transmits encrypted instructions through the RFID communication between the module and the mobile power. After the mobile power control module receives the instruction through the RFID communication device, the mobile power control module executes the power output function encryption program, and can further feedback the encryption execution result to the module control module 21 through the RFID communication transmission mode.

The mobile power rental equipment 1000 of the present invention includes a general control center and a number of mobile power charging modules 100; the control module 21 of each charging module 100 is connected to the general control center, and each charging module is controlled by the general control center to complete the mobile power supply. Loan or return procedures.

In the following embodiments, an infrared communication method is used as a non-contact communication method as an example, and a charging module and a mobile power source are provided as an example for specific description.

Example of infrared communication transmission data

In some embodiments, the charging module 100 uses a thimble type charging interface, and the charging interface and the wireless communication device are installed at the end of the charging module (that is, the back plate, the last end of the mobile power source entering direction), and the metal contacts of the mobile power source Point or charging interface, wireless communication device. The settings of the charging thimble and the wireless communication device can be reasonably adjusted according to the communication technology used. For example, the wireless communication device of the charging module is provided with an infrared transmitting module (infrared transmitting tube) and an infrared receiving module (infrared receiving tube) for sending instructions to the mobile power source and receiving communication data from the mobile power source. At this time, the charging thimble can be set A positive thimble and a negative thimble are used to charge mobile power. Or alternatively, the wireless communication device of the charging module is only provided with an infrared receiving module (infrared receiving tube) for receiving communication data sent by the mobile power supply. At this time, the charging thimble can be provided with a positive thimble and a negative thimble for charging. The positive pin of the thimble is not only responsible for charging the mobile power, but also responsible for sending instructions to the mobile power. Furthermore, the wireless communication device of the charging module is also provided with only one infrared receiving module (infrared receiving tube) for receiving communication data sent by the mobile power source. In addition to setting a positive thimble and a negative thimble, the charging thimble also has a positive thimble and a negative thimble. Set the communication thimble for the charging module to send instructions to the mobile power supply. In short, the form of the combination of the charging thimble or the charging interface and the wireless communication device can produce various combinations of changes, which can be set according to actual needs.

The charging module includes a control module. Its installation position is relatively flexible. The control module is installed on the control motherboard. It can be installed on the bottom of the module housing or at the end of the module such as the back of the backplane or other suitable locations. All functional components can be connected to the control motherboard. (Control module) connection. In some embodiments, the control module of the charging module is integrated with the charging control PCB, and both are provided or installed on the control motherboard of the charging module. Accordingly, the charging thimble or charging interface of the module is provided on the module control motherboard. .

Please refer to FIG. 1, a charging module of a mobile power rental device provided by a first embodiment of the present invention includes a control module 21 and an infrared receiving module 23 electrically connected to the control module 21, at least one positive charging thimble 24 and at least one negative electrode. The charging thimble 25, wherein the infrared receiving module 23 is used for receiving data sent by the infrared transmitting module provided on the mobile power source, and at least one positive charging thimble 24 and at least one negative charging thimble 25 are respectively used for at least A positive metal contact and at least one negative metal contact are in contact to charge and send instructions to the mobile power source.

The data includes the identification number of the mobile power source, the power of the mobile power source, and the like. The mobile power supply includes a control module, an infrared emission module of the mobile power supply, at least one positive metal contact and at least one negative metal contact are electrically connected to the control module of the mobile power, respectively. The mobile power also includes electrical power that is electrically connected to the control module of the mobile power. The level detection circuit and the pulse detection circuit, the level detection circuit and the pulse detection circuit are also electrically connected to the positive metal contacts, respectively.

Specifically, the mobile power source includes a casing and a battery core in the casing, a control module, an infrared receiving module, and a charging interface. The battery core, the infrared transmitting module, and the charging interface are electrically connected to the control module, respectively. The infrared transmitting module of the mobile power is used to send data to the infrared receiving module of the mobile power charging module; the infrared transmitting module of the mobile power is set in the infrared communication device, the infrared communication device is set in the casing of the mobile power, and the control module of the mobile power is set For mobile power control circuit board or single-chip microcomputer. Preferably, the mobile power supply further includes an infrared receiving module connected to the control module. The infrared receiving module is configured to receive instructions sent by the infrared transmitting module provided on the mobile power charging module; the infrared receiving module is provided in the infrared communication device.

Please refer to FIG. 2, the data transmission method between the charging module of the mobile power rental device and the mobile power provided by the first embodiment of the present invention includes the following steps:

S101. The control module of the charging module of the mobile power rental equipment controls the positive charging thimble to output a low-level signal;

S102: The level detection circuit of the mobile power supply detects the low-level signal output from the positive charging thimble of the charging module through the positive metal contact, and feeds back the low-level signal to the control module of the mobile power supply;

S103. After the positive charging thimble of the charging module of the charging module of the mobile power rental device outputs a low-level signal, the control module of the charging module controls the positive charging thimble to output a pulse signal;

S104. The control module of the mobile power source controls the pulse detection circuit to detect the input pulse. When the pulse detection circuit of the mobile power source detects the pulse signal output from the positive charging thimble of the charging module through the positive metal contact, the pulse signal is fed back to the mobile power source. Control module to complete the charging module sending control instructions to the mobile power supply;

S105. When the mobile power source responds to the received instruction and transmits data, the mobile power source control module controls the infrared transmission module of the mobile power source to send data;

S106. The charging module of the mobile power rental device receives data sent by the infrared transmitting module of the mobile power through the infrared receiving module of the charging module.

Please refer to FIG. 3. The charging module of the mobile power rental device provided in the second embodiment of the present invention includes a control module 21, an infrared transmitting module 22, an infrared receiving module 23, and at least one positive charging thimble 24 electrically connected to the control module 21 respectively. And at least one negative charging thimble 25, wherein the infrared receiving module 23 is used to receive data sent by the infrared transmitting module provided on the mobile power source, the infrared transmitting module 22 is used to send instructions to the infrared receiving module provided on the mobile power source, at least one The positive charging thimble 24 and the at least one negative charging thimble 25 are respectively used to contact at least one positive metal contact and at least one negative metal contact provided on the mobile power to charge the mobile power.

The data includes, but is not limited to, an identification number of a mobile power source, a power amount of the mobile power source, and the like. The mobile power supply also includes a control module, an infrared transmitting module, an infrared receiving module, at least one positive metal contact and at least one negative metal contact, which are electrically connected to the control module, respectively.

Referring to FIG. 4, the data transmission method between the charging module of the mobile power rental device and the mobile power provided by the second embodiment of the present invention includes the following steps:

S201. The infrared transmitting module of the charging module of the mobile power rental device sends an instruction to the mobile power;

S202. The mobile power source receives instructions through the infrared receiving module of the mobile power source, and responds through the control module. The control module controls the infrared transmitting module of the mobile power source to send data;

S203. The charging module of the mobile power rental device receives data sent by the infrared transmitting module of the mobile power through the infrared receiving module.

In the present invention, since the charging module of the mobile power rental equipment includes an infrared receiving module electrically connected to the control module and used to receive data sent by the infrared transmitting module provided on the mobile power, or the charging module includes The connected infrared transmitting module for sending instructions to the infrared receiving module provided on the mobile power source and the infrared receiving module for receiving data sent by the infrared transmitting module provided on the mobile power source. Therefore, the failure of data transmission is reduced to a certain extent.

A person of ordinary skill in the art may understand that all or part of the steps in the various methods of the foregoing embodiments may be implemented by a program instructing related hardware. The program may be stored in a computer-readable storage medium. The storage medium may include: Read-only memory (ROM, Read Only Memory), random access memory (RAM, Random Access Memory), magnetic disks or optical disks, etc.

In various embodiments of the present invention, the control module 21 of the charging module 100 of the mobile power rental equipment is disposed on the module control motherboard. In the embodiment of the present invention, the control module / control motherboard is denoted by reference numeral 21, and the module controls the motherboard. 21 can be an independent control circuit board, a shared control circuit board, or a general control center set in a mobile power rental equipment. The general control center of the mobile power rental equipment is electrically and / or communicatively connected with the module control module / control board 21, and the general control center controls the operation of each module control module / control board 21. The control module of the mobile power supply is set on the control circuit board or single-chip computer of the mobile power supply, and controls the work of the electronic components of the mobile power supply. The charging interface of the charging module can adopt various interfaces that are suitable for contact charging with a mobile power source, including not only the thimble, but the charging interface and the charging thimble of the embodiment of the present invention are marked with the reference numeral 24 (25). The charging module 100 is provided with an infrared communication device 223, and the mobile power source inserted into the charging module is preferably correspondingly provided with an infrared communication device 310. The charging module 100 forms an infrared communication transmission mode between the infrared communication device 223 and the infrared communication device 310 of the mobile power supply. The infrared communication device 223 of the charging module includes an infrared transmitting module 22 and / or an infrared receiving module 23, and a mobile power supply 300. An infrared communication device 310 is provided on the infrared communication device 310. The infrared communication device 310 includes an infrared transmitting module and / or an infrared receiving module of a mobile power supply. The charging interface of the module 100 can be installed on an independent charging control PCB or on the module control motherboard 21, and the charging interface 24 (25) is installed on the module control motherboard 21. In some embodiments of the present invention, the mobile power rental device transmits data through the infrared communication mode between the charging module and the mobile power in it, performs sending and receiving instructions or obtains related information, and sends the data to the rental device via the control module 21 of the charging module. The general control center or server transmits (reports) relevant information and completes the relevant operating procedures of the leased equipment, such as charging, renting, returning, collecting and processing data, fault confirmation or declaration, and maintenance. The charging module can charge the mobile power only through the charging interfaces 24, 25.

In other embodiments, the charging module 100 may further include a communication interface 29. A mobile power source inserted into the charging module is provided with a communication interface correspondingly. The communication interface of the charging module and the communication interface of the mobile power source are connected to form a communication interface. Data transmission mode. The transmission data mode of the communication interface can also complete receiving and sending instructions or obtaining related information. The control module 21 of the charging module transmits (reports) related information to the general control center or server of the leased device to complete the related operating procedures of the leased device, such as Charging, renting, returning, collecting and processing data, fault reporting, maintenance, etc.

In the following, various embodiments or specific application examples are used to illustrate various functional structures that the mobile power charging module 100 of the present invention can have or implement, but it is not intended to limit the protection scope of the present invention. The functional structures of various examples can be combined into different implementation examples, which all belong to the scope described in the present invention. The embodiment and the specific charging module 100 shown in Figs. 1-15 can be detachably installed as independent and complete structural components in each charging compartment of the host of the mobile power rental equipment (see Fig. 5-12) to form a lease. Multiple repeated charging units on the device host; it can also be provided by mobile power rental equipment with at least part of the structure, such as the housing 1 and / or the top cover 17 of the charging module, etc. Form; or each charging module 100 is directly installed by the host of the mobile power rental equipment 1000. Referring to FIGS. 13-15, the host is provided with a plurality of installation cabins to define the internal silo 10, the bottom of the silo corresponds to the back plate 13, and the silo can be vertical. Or horizontally or in other directions, or in other suitable structures, configured on each of the repeated charging units on the host of the mobile power rental equipment, and the various functional structures of the embodiments of the present invention are installed or configured accordingly.

Examples of charging modules with multiple interfaces

In the embodiment of the present invention, an interface is provided on the control motherboard 21 of the charging module 100. The communication interface and / or the charging interface of the charging module are contact interfaces, and the mobile power supply in the module is provided with a matching contact mode. Interface; the contact interface of the charging module includes a spring pin or a rigid interface. The hard interface can be Type-C interface, Micro USB interface, Lightning interface, contact type or DC interface. One or multiple types of interfaces can be set on the charging module / mobile power correspondingly, for example, a thimble (corresponding to a mobile power contact) and a USB interface (respectively male or female) are provided at the same time. Each interface and control The main board 21 is electrically connected.

The interface includes a charging interface for charging the mobile power source, and may or may not include a communication interface for transmitting data with the mobile power source.

Referring to FIGS. 7-15, in some embodiments, the charging unit of the mobile power rental device, that is, the mobile power charging module 100, uses a thimble type charging module diagram, and uses a thimble as an interface to implement charging and / or communication. The thimble can It is a traditional elastic thimble or spring thimble, or a rigid thimble interface without elasticity. The charging module thimbles of these embodiments include charging

thimbles

24 and 25 for charging a mobile power source, and may further include a communication thimble 29 for transmitting data with the mobile power source. Corresponding conductive contacts are provided on the mobile power supply, and the contact with the charging module thimble is conducted to realize electrical connection or communication connection.

The interface of the charging module can also be other hard interfaces, such as the Type-C interface, Micro USB interface, Lightning interface, contact type or DC interface on the market. The rigid interface is not flexible or has small flexibility. When the mobile power is inserted into the charging module, the male and female interfaces of the interface must be accurately docked. In the embodiment shown in FIG. 5-6, a male connector of the USB interface is provided on the module control board 21 as a charging interface 24 (25), and is plugged with a female connector of the USB interface on the mobile power source for charging and / or communication.

In addition to the charging interface 24 (25), the interface of the module 100 can be provided with the same interface as the communication interface 29, and the communication interface 29 can also share the charging interface 24 (25). The method of transmitting data through the interface is similar to the method of transmitting data with the thimble, and is the connection (such as plugging or contacting) between the module interface and the interface of the mobile power supply for data transmission, which is not described in detail here.

In some embodiments, the interface male is disposed on the charging module 100 and the interface female is disposed on the mobile power source 300. Because the female head is recessed on the surface of the mobile power source, it is not easy to be soiled, and the problem of poor contact of the plug can be solved to a certain extent. In addition, using a rigid interface can simplify the structure of the mobile power supply and save manufacturing costs. In order to allow the user to charge the mobile power supply when the mobile power supply is out of power during the rental of the mobile power supply, it is convenient for the user. In addition to the metal contacts on the mobile power supply as one of the ways to charge the mobile power supply, Need to reserve another universal interface as a way for users to charge mobile power. And this reserved universal interface, most use Micro USB interface. If a hard interface is used as the interface for charging the mobile power supply by the charging module, since the hard interface itself is a standard part, there is no need to add another interface for the user to charge the mobile power.

In order to improve the accuracy of the hard interface docking, the male and female heads of the interface can be further positioned and guided. The charging module 100 and mobile power supply 300 are designed with guiding and positioning structures, including positioning holes, positioning posts, screws, A combination of one or more of the structures such as the guide slope. As an embodiment, referring to FIGS. 5-6, the control motherboard 21 of the charging module is installed on the module housing, the charging interface 24 (25) provided on the control motherboard 21 is a male head, and the corresponding position of the module housing 1 Guide positioning holes are provided. For example, guide positioning holes 110 and 130 (refer to FIG. 10) are provided at the end of the charging module, that is, the back plate 13 corresponding to the mounting male or thimble position, so that the male head or thimble is accurately fixed in the hole. In some embodiments, referring to FIG. 7, the housing of the charging module and the control motherboard 2 on which the charging interface 24 (25) is installed form a positioning post / positioning hole mating structure, for example, the back plate 13 at the end of the charging module faces backwards. A positioning post 111 is formed at the end, and a positioning hole 211 is opened on the control main board (or charging control PCB) 21, and the positioning post is matched with the positioning hole during installation to improve the position accuracy of the charging control PCB / control main board and the male head. Positioning posts / holes are provided interchangeably. The positioning post for positioning and guiding may also be formed on the top of the screw post or the top end of the module positioning post provided on the module housing, for example, the top position of the screw post fixing the control main board 21 is added with a guide and positioning structure to control the main board 21 Positioning.

In some embodiments, referring to FIG. 8, the position of the female interface on the mobile power source 300 may be provided with a guide bevel 301 at the end surface position, so that when the male and the female are docked, the male insert position is guided by the guide bevel 301. .

In some embodiments, the Type-C interface, the Lightning interface, the contact interface, and the DC interface of the rigid interface can be plugged in both directions. Therefore, when using these types of interfaces, the interface female can be set on the end face of the mobile power supply. In the center position, the male head of the interface is set at the position corresponding to the end of the charging module (that is, the back plate) 13. In this case, the mobile power supply 300 can be returned in the positive and negative directions, and the positive and negative directions of the mobile power during the return are not limited. In the case of using the Micro USB interface, as the interface cannot be plugged in and out, if the interface female is arranged in the middle position of the end face of the mobile power supply, the return direction of the mobile power supply needs to be restricted, so that the user cannot return the mobile power supply in the reverse direction. . If there is no restriction on the return direction of the mobile power supply, the interface female head cannot be arranged in the center position, but should be placed on one side of the end face of the mobile power supply, and the opposite side of the interface female head should be provided on the other side of the end face while charging. An interface male can be set at the corresponding position on one end of the module. The mobile power returned in this way can be successfully returned and charged no matter which side is up. When the thimble is used as the interface, the charging module can be set with a symmetrical charging thimble, which can also be charged when plugged in reverse, or the charging thimble or communication thimble can be automatically switched by software control. As a charging module of the interface, the thimble is generally provided with at least two thimbles for charging and / or communication.

Referring to FIGS. 5-12, the charging module of various interface embodiments is further configured with a locking structure and an unlocking structure. Specifically, the charging module 100 includes a housing 1, a sliding bracket 2, a pin slider 3, and a control module. 21. Detection assembly (not shown), cover 17. The inside of the casing 1 is a receiving cavity, that is, the bin 10, and the sliding bracket 2 is slidably installed in the receiving cavity of the casing 1 through a pin slider 3. The sliding bracket 2 is carried when the mobile power is loaned out and returned for charging. Mobile power in and out of the silo 10. The front end of the warehouse is a mobile power inlet and the warehouse entrance 11 is. The pin slider 3 is provided with a pin for locking the mobile power source 300. Under the action of the power mechanism, the sliding bracket 2 can drive the sliding bracket 2 to move outward to complete the lending of the mobile power source 300.

The casing 1 defines a silo 10 for accommodating a mobile power source, allowing the mobile power source to pass in and out, and simultaneously serving as a position for the mobile power source 300 to complete charging and communication within the charging module 100. The opening at the front end of the casing 1 is a silo entrance 11 for mobile power to enter and exit the silo 10, and a warehouse door can be installed at the silo entrance as required. The housing 1 includes a back plate 13 at the end of the housing (which is the same as the depth of the mobile power entering the charging module, is located at the end of the silo or the module and is opposite to the silo entrance 11), and the two side walls 12 of the housing (also the silo) The two side walls are parallel to the moving direction of the mobile power supply), the bottom 14 and the top cover 17 of the housing (corresponding to the front and back sides of the mobile power supply). The backboard 13, the two side walls 12 and the bottom 14 together form an internal silo 10. The positions and settings of the back plate 13, the two side walls 12, the bottom 14, and the top cover 17 are relatively speaking, and can be set according to the shape of the silo and the casing.

The housing 1 is provided with a slide rail 121 for guiding movement of the pin slider 3. The pin slider 3 can slide along the slide rail 121. Two slide rails 121 are respectively disposed on the left and right sides of the silo track 10 and are close to one end of the silo track mouth 11. The installation bin 120 where the infrared communication device 223 is installed is located at the other end of the slide rail 121 near the inner end of the silo. That is, the installation bin 120 and the slide rail 121 are located at the front and rear ends of the side of the silo. The installation bin 120 is near the rear end of the silo and the slide 121. Close to the front door opening 11. Of course, the slide rail 121 and the installation bin 120 may be replaced or configured in other ways. The casing 1 is also provided with a guide rail 18, which is opened in the silo 10 or the bottom wall of the casing and penetrates vertically. A guide block provided on the back of the sliding bracket 2 penetrates the guide rail 18 downward to the back of the bottom wall of the casing 1 and slides along the guide rail 18 to fit.

The back plate 13 is provided with a guide positioning hole, ie, a thimble via hole 130. The thimble pins 24, 25, and 29 provided on the control board 21 extend through the thimble via hole 130 into the silo, and contact the end of the mobile power supply in the silo to realize charging. And / or communication, the thimble includes a charging

thimble

24, 25 and a communication thimble 29, which are respectively in contact with the conductive contacts of the mobile power source in the silo for charging and / or transmitting data. The communication thimble and charging thimble can be shared or independently set. Preferably, the number of thimbles is at least two. As a preferred arrangement, the thimble of the charging module includes a pair of charging

thimbles

24 and 25 and a pair of communication thimbles 29.

As shown in the figure, the control main board 21 is installed outside the end of the charging module, that is, behind the back plate 13, and can also be installed at different positions in the module or mobile power rental equipment according to the actual space.

Charging module with two data transmission modes

As one of the embodiments, the charging module of the mobile power rental device includes two data transmission modes coexisting or selected to be applicable. One of the data transmission modes is a contact data transmission mode, which completes the transmission of data between the charging module and the mobile power source. At this time, the interface of the charging module includes a communication interface. Correspondingly, the mobile power supply is provided with a communication interface. The communication interface between the charging module and the mobile power communication interface is connected for data transmission.

It can be understood that the charging module 100 can optionally be provided with a charging interface 24 (25), the module charging interface 24 (25) is connected to the control motherboard 21, and the mobile power supply is provided with a charging interface correspondingly. The module charging interface 24 (25) is connected to the charging interface of the mobile power source for charging.

The general control center or server of the mobile power rental equipment sends instructions to the control module of the charging module. The control module of the charging module is connected to the power communication interface through the module communication interface to transmit instructions to the control module of the mobile power, such as instructing the mobile power Send the mobile power related information to the module. At this time, the mobile power control module receives the instruction information through the communication interface and sends the specific related data of the execution instruction to the charging module control module through the power communication interface, such as sending mobile power related information, the charging mode The group control module receives the relevant information data through the module communication interface, which can be further transmitted to the general control center or server of the mobile power rental equipment for data processing, including confirmation of mobile power related information, declaration of faults, etc., so as to complete the return or borrow. You can also perform other functions according to your needs, such as the operation of the mobile power supply or failure reporting.

Another transmission data mode is a contactless transmission data mode using the foregoing embodiment. The data transmitted in the contact data transmission mode and / or the non-contact data transmission mode include the charging module transmitting instructions to the mobile power source that require the mobile power source to execute, and / or, the charging module receiving the execution result information reported by the mobile power source. .

Specifically, the data transmitted in the non-contact data transmission mode and / or the contact data transmission mode includes mobile power information or instructions. Mobile power information includes but is not limited to identity information or mobile power status information. The mobile power identity information includes mobile power ID or SN code or other identification information; the transmitted mobile power status information includes power of the mobile power, power temperature, charging current, number of uses, mobile power output function switch status, mobile power failure Information or one or more of the working status information of the components of the mobile power supply.

The control module of the charging module controls its non-contact communication device and interface to transmit data or charge mobile power. The mobile power source adapted to the charging module includes a control module and a non-contact communication device, a communication interface, and a charging interface connected to the control module. The control module of the mobile power supply controls the related work of the non-contact communication device, communication interface, and charging interface. The control module of the mobile power supply receives the instructions sent by the module control module through the non-contact communication device and the communication interface and starts to execute the related instructions, such as reporting the information of the mobile power supply. The control module of the mobile power supply is set in a single-chip microcomputer of the mobile power supply. The control module includes a storage space. The information of the mobile power supply is stored in the storage space of the control module of the mobile power supply and is a non-contact type transmitted by the control module to the mobile power supply. The communication device and / or the communication interface are further received by the contactless communication device and / or the communication interface of the charging module. The information of the mobile power can be directly stored, such as physical information and version number, or can be obtained by the electronic components of the mobile power such as sensors or detection elements and stored in the control module. These acquisition methods use existing methods, here Do not go into details. When an infrared communication device is used for data transmission in the following embodiments, the control of the respective infrared communication devices by the control module of the charging module / mobile power is the same as the aforementioned non-contact communication device.

The charging module is configured such that the non-contact transmission data mode and the contact transmission data mode coexist or select an appropriate method to perform data transmission between the charging module and the mobile power source in the module silo, thereby realizing the charging module The mobile power rental equipment where it is located executes related operating procedures on the mobile power in the module. The data transmitted in the contact data transmission mode and / or the contactless data transmission mode include mobile power information or instructions; the data transmission mode between the charging module and the mobile power in the module bay is configured as:

Either the contact data transmission mode or the non-contact data transmission mode is used for data transmission on the principle of random selection or competition selection.

In the process of completing the relevant operating procedures between the rental equipment and the mobile power supply in the module, preferably, the non-contact transmission data mode and the contact transmission data mode are used to transmit the same data.

In an embodiment, the non-contact data transmission mode is an infrared communication data transmission mode. An infrared communication device is correspondingly provided on the charging module and the mobile power source, and the infrared signal is used to carry and transmit instructions and related information of the mobile power source. The infrared communication device includes an infrared transmitting module and an infrared receiving module. The general control center or server of the mobile power rental equipment sends instructions to the control module 21 of the charging module. The control module 21 of the charging module transmits an instruction to the infrared receiving module of the mobile power through the infrared transmitting module 22, and instructs the mobile power to send to the module. Mobile power information. The mobile power control module receives instructions through the infrared receiving module and sends data about mobile power related information to the infrared receiving module 23 of the charging module through the infrared transmitting module. The charging module control module receives mobile power related information through the infrared receiving module. The information data can be further transmitted to the general control center or server of the mobile power rental equipment for data processing, including mobile power identification, confirmation of mobile power related information, declaration of faults, etc., so that the operation of returning or lending mobile power can be completed Or perform fault reporting and other functions as needed.

As an embodiment, the charging module is configured as follows: an infrared communication transmission data mode and a contact transmission data mode are configured to coexist or select applicable principles to configure the data transmission between the charging module and the mobile power source. The transmitted data includes mobile power information or instructions. One or more of the identification information, version number, and status information of the mobile power bank. The transmission data includes: the charging module sends an instruction to the mobile power source, such as an instruction to send mobile power information, and / or the charging module receives the mobile power information sent by the mobile power source.

The infrared receiving module 23 and the infrared transmitting module 22 of the module are connected to the control module 21, and the charging interface and the communication interface are electrically connected to the control module 21. The control module 21 is disposed on the module control motherboard. The control motherboard can be an independent control circuit board for each charging module or a control circuit board shared by multiple modules, or it can be set on the general control board corresponding to the general control center of the mobile power rental equipment. The setting form is not limited. . Correspondingly, the infrared communication device of the mobile power source includes an infrared transmitting module and may further include an infrared receiving module; the mobile power source includes a charging interface and a communication interface, and the charging interface of the charging module is connected to the charging interface of the mobile power source for charging. The connection between the charging module and the communication interface of the mobile power supply forms a contact data transmission mode, or the communication connection between the module infrared communication device and the infrared communication device of the mobile power supply forms an infrared communication transmission data mode, both modes can be performed For data transmission, the module and mobile power supply send / receive instructions to each other, and can also send / receive mobile power supply information data or instruction execution results.

The infrared communication transmission data mode and the contact transmission data mode are configured to coexist or select applicable principles to configure the data transmission between the charging module and the mobile power source; the mobile power source information includes but is not limited to the identity information of the power source and the mobile power source status information One or more of them. The mobile power status information includes, but is not limited to, mobile power capacity, power temperature, charging current, number of uses, mobile power power output function switch status, mobile power failure information, and working status information of components of the mobile power. Identity information such as ID / SN code or other types of identification information. The transmission data includes, but is not limited to, the charging module sends an instruction to the mobile power source to send mobile power source information, and / or the charging module receives the mobile power source information sent by the mobile power source.

The charging module 100 can be configured as:

Preferentially select the contact data transmission mode between the charging module communication interface and the mobile power communication interface, and the infrared communication transmission data mode is optional; or,

Priority infrared data transmission mode, alternative contact data transmission mode; or,

The charging module and the mobile power source use the contact transmission data mode and the infrared communication transmission data mode to coexist, or either mode is random or the election transmission is completed first to perform data transmission; the election priority method is to complete the data first. The method of transmission takes precedence.

The configuration of various transmission data modes is conducive to improving the efficiency and reliability of data transmission, improving the speed and reliability of data transmission between the mobile power supply and the charging module (and then with the rental equipment or server), and improving the efficiency of mobile power return and lending And operation reliability, to prevent failure of equipment that cannot be effectively returned or loaned, and improve the user experience. The charging module with two transmission data mode configurations effectively improves the speed of instruction transmission, information data transmission and identification, and improves the efficiency and reliability of mobile power supply return. Once a transmission data mode failure occurs, it can be started immediately or executed simultaneously. Two types of data transmission modes enable data transmission between the device and the mobile power supply in a timely manner. The device or server can identify the mobile power supply in a timely and efficient manner and return it quickly, or the device or server can communicate with the mobile power supply in a timely and efficient manner. , Effective lending mobile power.

As a preferred embodiment, referring to FIGS. 7-16, the interface of the charging module uses a thimble, including a charging

thimble

24, 25 and a communication thimble 29 connected to the control module 21. Accordingly, the interface of the mobile power supply is a contact, and for applications For charging and communication, the number corresponds. The charging module is provided with a plurality of thimbles, preferably at least two thimbles. In some embodiments, a pair of communication thimbles 29 may be used for data transmission with the contacts of the mobile power source, transmitting instructions or related information data of the mobile power source; a pair of charging

thimbles

24, 25 are used for communication with the mobile power source. Contact to charge the power bank. The charging module of the mobile power rental equipment also includes an infrared communication device 223 connected to the control module 21. The infrared communication device 223 includes an infrared transmitting module 22 and an infrared receiving module 23. The infrared receiving module 23 is configured to receive Data sent by the infrared transmitting module of the infrared communication device 310. The infrared transmitting module 22 is used to send instructions to the infrared receiving module of the infrared communication device 310 set on the mobile power source, and transmit the instructions or the related information data or instruction execution of the mobile power source through the infrared communication device. result.

The general control center or server of the mobile power rental equipment sends instructions to the control module 21 of the charging module. The control module 21 of the charging module contacts the contacts of the mobile power through a communication thimble to form a thimble contact contact data transmission mode to the mobile power. Transmit instruction information, instruct the mobile power to send the relevant information of the mobile power to the module. The mobile power control module receives the instruction information through the contacts and charges the data through the contact type of the pin contact formation of the contact between the contact and the module's communication pin. The module control module sends data of mobile power related information or the result of executing instructions. The charging module control module receives the data of mobile power related information through the thimble and further transmits it to the general control center or server of the mobile power rental equipment for data. Processing, including confirmation of mobile power identity information to complete return or loan services.

Further, the charging module includes an infrared communication device, and the mobile power supply is also provided with an infrared communication device. Data is transmitted between the infrared communication devices to complete the identification of the mobile power supply when the device is leased or returned. Specifically, the general control center or server of the mobile power rental equipment sends an instruction to the control module 21 of the charging module, and the control module 21 of the charging module transmits an instruction to the infrared receiving module of the mobile power via the infrared transmitting module 22 to instruct the mobile power to The module sends mobile power information. The mobile power control module receives the instruction information through the infrared receiving module and sends the mobile power related information to the infrared receiving module 23 of the charging module through the infrared transmitting module. The charging module control module receives the mobile through the infrared receiving module. Data of power supply related information or mobile power execution command result information is further transmitted to the general control center or server of mobile power rental equipment for data processing, including confirmation of mobile power identity information, etc., to complete the return or loan of mobile power.

The above-mentioned module communication thimble is in contact with the mobile power contact to form a thimble contact transmission data mode, or the infrared communication transmission mode between the module infrared communication device and the infrared communication device of the mobile power source. Both modes are It can carry out data transmission, execute sending / receiving instructions and sending / receiving mobile power information data. The charging module can be configured to: preferentially select the thimble contact contact data transmission mode between the communication interface of the charging module and the mobile power communication interface, and an alternative infrared communication transmission data mode; or,

Priority infrared data transmission mode, alternative thimble contact contact data transmission mode; or,

The charging module and the mobile power source use the thimble contact contact data transmission mode and the infrared communication transmission data mode to coexist, or either mode is random or the election transmission completion priority is used for data transmission; in the election priority mode First, the principle of data transmission is completed first.

In the charger module of the thimble-type rental device, the above configuration of the two modes of thimble contact contact data transmission mode and infrared communication transmission data mode is beneficial to improve data transmission efficiency and reliability, that is, to improve mobile power and charging mode The data transmission speed and reliability between the group (and further with the leased device or server), improve the efficiency and reliability of mobile power return and lending, prevent equipment failures such as failure to effectively return or lend mobile power, and improve the user experience. Once a transmission data mode failure occurs, the second transmission data mode can be started immediately or executed simultaneously to enable timely data transmission between the device and the mobile power source. The device or server can identify the mobile power source in time to efficiently lend or Return or do something else.

It is also possible to start the second transmission mode after the first data transmission, as a detection of the data transmission device. The module transfers the data to the device or server as soon as the data is read, so that while ensuring the efficiency of mobile power return and lending, it detects the data transmission device and feedbacks fault information in a timely manner to notify the operation and maintenance personnel to perform timely maintenance. device.

The charging module with two transmission data mode configurations effectively improves the data transmission speed, improves the efficiency and reliability of mobile power return or lending. If one transmission mode fails, the second transmission mode can be started immediately or executed at the same time, so that the device is timely. Get mobile power information, identify mobile power, and quickly return or lend.

On the other hand, the charging module with two data transmission mode configurations can be used for mobile power rental equipment of thimble type charging modules. Direct replacement of the module can realize the old model with only thimble contact contact data transmission mode. Upgrading of the rental equipment, upgrade to a new rental equipment with infrared communication data transmission mode. At the same time, the rental equipment with two data transmission mode charging modules is suitable for the return or loan of mobile power with infrared communication function, and also suitable for the return and loan of old mobile power with only interface communication data transmission mode, such as The same applies to the old mobile power supply with only contacts. This effectively solves the problem of replacement of old equipment, and the continued application of old mobile power to new and old leased equipment.

In a specific application embodiment, using the infrared communication transmission data mode and the thimble contact contact data transmission mode, the mobile power information is read in the mobile power loan program, and then reported by the module control module 21 to the rental device or server , The server or the leased device confirms the specific mobile power bank and sends an instruction to pop the mobile power bank to the module, and the mobile power bank is ejected by the module.

When renting mobile power, the user first sends a mobile power rental request to the server by scanning the code. The server receives the request, obtains the identification code of the mobile power rental device according to the request, and orders the device to report the mobile power mobile power information, including but not Limited to one or more of the mobile power's identity information, version number, and mobile power status information; mobile power status information includes, but is not limited to, mobile power power, power temperature, charging current, number of uses, and mobile power power output function switch status One or more of the mobile power failure information and the working status information of the components of the mobile power. The identification information of the mobile power can be ID or SN code or other types of identification information. The equipment general control center commands each charging module to report the above information, and each charging module controls the communication thimble and / or infrared communication device to read the above information of the mobile power supply and reports it to the equipment general control center. It can be read by the thimble first, if the thimble fails to read, and then read by infrared; or by infrared, the infrared reading fails, and then read by the thimble. In order to ensure the efficiency of loan or return, it can be set to ensure that the mobile power source information can be read at the first time.

The module sends instructions to the mobile power source to report mobile power information through the communication thimble and / or infrared communication device. The mobile power source receives instructions through the contact and / or infrared communication device and sends mobile power related information to the module. The module controls the module. The mobile power related information received through the communication thimble and / or infrared communication device is further sent to the general control center of the leased equipment. The general control center of the equipment reports the mobile power information reported by the module to the server, and the server receives the mobile power information. And make a comprehensive judgment, select the mobile power with the best comprehensive conditions, and notify the equipment general control center to pop up the mobile power. The control module 21 of the charging module where the mobile power is located, when the user removes the mobile power, the mobile power is successfully loaned. The information reports to the equipment general control center, further reports to the server, and the server sends the lease success information to the mobile terminal where the user is located, and reports the mobile power lease success information to the server.

In other application embodiments, when the mobile power supply is in an encrypted state, an infrared communication device and / or a communication thimble may be used to transmit data to the mobile power supply when lent, and is specifically used to transmit instructions and read requests for decrypting the power output function of the mobile power supply. Take the result of mobile power decryption: When the mobile power rental device confirms that the mobile power is loaned out and the mobile power is encrypted, at this time, the power output can be started through the infrared communication transmission data mode and / or the thimble contact contact data transmission mode. Function decryption program, the module control module 21 controls the module's infrared communication device and / or communication thimble to transmit the instruction to decrypt the mobile power to the mobile power source, and the control module of the mobile power source receives the instruction to decrypt the mobile power source via the infrared communication device or contact, And control the mobile power source to decrypt. The information of the execution result decrypted by the mobile power source can be further transmitted through infrared communication data mode and / or thimble contact contact data transmission mode. The information of the execution result is fed back from the mobile power source to the module, which is the mobile power source decryption. Information, and finally popped up by the module after decryption. In the power source and power output function decryption program, if one of the data transmission methods causes the mobile power source to be unsuccessful in decryption, this method cannot transmit the decryption instruction or cannot read the mobile power source decryption information, then the other data transmission mode can be switched to send the decryption. Instructions, start the mobile power output function decryption program and feedback the decryption result, and at the same time feedback the fault information to the server, and notify the operation and maintenance personnel, or after the operation and maintenance personnel obtain the fault information through the background server, they can go to the site to confirm the specific fault problem. Check the equipment or power bank for specific problems. Among them, infrared and thimble transmission data can be configured as follows:

Transmit the mobile power command via thimble first. If the mobile power command is unsuccessful, the mobile power command will be transmitted via the infrared communication device; or the mobile power command will be transmitted via the infrared communication device, such as the infrared communication device. The mobile power command failed, and then transmitted the decryption command through the thimble. Of course, it is also possible to use the thimble and infrared to coexist in two ways or to transmit in any one of the two ways or the successful election principle of first priority.

In a specific application embodiment, an infrared communication transmission data mode and / or a thimble contact contact data transmission mode are used to read mobile power information, including identification information such as ID / SN code of mobile power, It is also used to report fault information. The specific operations are as follows:

1. Method: In the process of lending or returning the mobile power, whether or not the two methods are faulty, the data can be transmitted through the thimble and the infrared communication device in accordance with a preset procedure to read the mobile power information.

2. Function: Check whether the thimble and infrared communication device are faulty. If the fault can't read the information, report the situation to the server in time, so that the operation and maintenance personnel can repair it in time.

3. Interpretation order: You can read the mobile power information through the thimble first, then the information through the infrared communication device, or the information through the infrared communication device, and then the mobile power information through the thimble:

A. If the mobile power information can be read through both the thimble and the infrared communication device, then the thimble and the infrared communication device are operating normally.

B. If the mobile power information cannot be read through the thimble, you can read the mobile power information such as identity information (such as ID / SN code) through the infrared communication device, and report the read information to the server, and read the thimble at the same time. If the information is not available, it is fed back to the server, so that the operation and maintenance personnel can be notified to repair the equipment in time.

C. If the mobile power information cannot be read through the infrared communication device, read the mobile power information such as identity information (such as ID / SN code) through the thimble, and report the read information to the server, while reading the infrared communication device The result of failure to obtain information is fed back to the server, and the server performs subsequent feedback processing in order to notify the operation and maintenance personnel to repair the equipment in time.

D. If neither the power source information nor the identity information (such as ID / SN code) can be read through the thimble and the infrared communication device, report the fault condition (such as the fault type) to the server, and the server performs subsequent feedback processing in order to Notify the operation and maintenance personnel to repair the equipment in time.

In a specific application embodiment, an infrared communication transmission data mode and a communication thimble contact transmission data mode are used to read mobile power information in a mobile power return program including, but not limited to, mobile power identity information such as ID / SN code , Which is also used to report fault information. The specific method can be one of the following three:

Method 1: The server uses the leased equipment to uniformly control the equipment to perform mobile power information interpretation.

The rental device feeds back the received return command to the server, and the server instructs the rental device to take corresponding actions. The mobile power return process is as follows:

The user inserts the mobile power in the mobile power bin 10 through the mobile terminal or through the return button on the device, or directly inserts the mobile power in the mobile power bin 10 to issue a command to return the mobile power. The rental device receives the command. The server sends the command to the server. The server receives the return command, and issues an instruction to notify the rental device to read the mobile power identity information such as ID / SN code through the thimble, and then read the mobile power identity information (such as ID / SN) through the infrared communication device. Code), or first, identify the mobile power identity information (such as ID / SN code) through the infrared communication device, and then read the mobile power identity information (such as ID / SN code) through the thimble;

A. If the device can read the mobile power identity information (such as ID / SN code) through the thimble and the infrared communication device, the device will identify the mobile power identity information (such as ID / SN code) the first time it reads the information. Reporting to the server, the server receives the identity information (such as ID / SN code) of the mobile power source, and inquires the corresponding user according to the received identity information (such as ID / SN code), and sends a return success message to the corresponding mobile terminal of the user, Remind the user that the return was successful.

B. If the device can only read the identity information (such as ID / SN code) through the thimble or infrared communication device, the device reports the read identity information (such as ID / SN code) to the server, and report to the server at the same time. Fault information, the server inquires the user corresponding to the mobile power source according to the received mobile power identity information (such as ID / SN code), sends a return success message to the mobile terminal corresponding to the user, reminds the user that the return is successful, and receives and records the fault information And carry out corresponding follow-up processing feedback.

C. If the device cannot read the identity information (such as ID / SN code) through the thimble or infrared communication device, the device reports the fault information to the server. The user can use other devices, other warehouses, or other methods such as calling customer service to resolve the mobile Power return problem.

For rental equipment with a thimble structure, the identity information of the mobile power source (such as ID / SN code) can be read through the contact of the thimble with the contact of the mobile power source. Therefore, it can be set to read the identity information (such as ID / SN code) through the thimble first. ), And then identify the mobile power identity information (such as ID / SN code) through the infrared communication device to ensure that the mobile power identity information (such as ID / SN code) cannot be successfully read in time when the contact is poorly contacted, read and reported Mobile power identity information (such as ID / SN code). In addition, under the premise of ensuring the efficiency of returning the mobile power to the rental, reading the information through the infrared communication device under the normal working condition of the thimble is conducive to checking the working status of the infrared communication device, so that when problems with the infrared communication device are found Report to the back-end server, and notify related personnel to follow up and repair in a timely manner.

Of course, you can also read the mobile power identity information (such as ID / SN code) through the infrared communication device, and then read through the thimble, or read the identity information only through the infrared communication device in the event of a thimble failure, or in the infrared When the communication device fails, the identity information is read only through the thimble.

Method 2: The leased device reads the mobile power information through the program preset by the server, and reports the result of the mobile power return, as well as the failure condition of the thimble or infrared communication device, to the server: set the corresponding logic program for the leased device in advance through the server, and lease The device reads the identity information (such as ID / SN code) by itself according to the preset procedure. It only needs to report the return result to the server, and does not need the server's instruction to read the identity information (such as ID / SN code). The process is as follows:

The user sends a return command, and the device receives the command. According to a preset program in the device, the module control module that sends the ID / SN information to the module control module where the mobile power is currently returned is sent. The module control module commands the thimble and The infrared communication device reads the ID / SN information in a specific order (it can command the thimble to read the ID / SN information first, and then read the ID / SN information after the infrared communication device, or order the infrared communication device to read the ID / SN information first, and the thimble Then read ID / SN information),

A. If both the thimble and the infrared communication device can read the ID / SN information, the thimble and the infrared communication device report the read ID / SN information to the module control module, and the module control module reports the ID / SN information To the equipment general control center, the general control center receives the ID / SN information, and inquires the corresponding user according to the received ID / SN information, and sends a return success message to the corresponding mobile terminal of the user, reminding the user that the return is successful and the return is successful. Report the mobile power related information to the server;

B. If only one of the thimble or infrared communication device can successfully read the ID / SN information, the module control module receives the ID / SN information and sends the ID / SN information to the equipment general control center, and reports the fault information to the general Control center, the general control center inquires the corresponding user based on the received ID / SN information, sends a return success message to the corresponding mobile terminal of the user, reminds the user that the return is successful, and at the same time receives and records the fault situation, and related the returned mobile power Report the information and the failure of the thimble or infrared communication device to the server for subsequent processing and feedback;

C. If neither the thimble or the infrared communication device can identify the mobile power ID / SN information, and the module control module cannot receive the mobile power ID / SN information according to the preset procedure, the module control module sends the mobile power to the control center to return Failure information, the equipment general control center receives the return failure information, and issues a prompt to the user to return failure.

Method 3: Lease equipment to perform ID / SN information interpretation by itself based on pre-installed software, and report the results of the related mobile power supply, as well as the malfunction of the thimble or infrared communication device to the server: Write the ID / SN information interpretation program in advance The software is installed in the mobile power rental equipment, and the equipment reads the ID / SN information according to the procedures specified by the software. The control program is implanted into the rental device. The difference from method two is that the device establishes a connection with the server and interprets it according to the logic set by the server. The logic program here is directly implanted into the mobile power rental. Device. The other interpretation process is the same as the second method.

Other methods for reading other information of the mobile power source can be read and uploaded by using the same or similar method as the method for judging the identity information of the mobile power source, which will not be repeated here.

In short, when various data transmission is required between the charging module of the mobile power rental equipment and the mobile power, the transmitted data includes, but is not limited to, the transmission of the mobile power related information, fault information, various command information, etc., Can use contact transmission data mode and / or infrared communication transmission data mode, coexistence of the two, contact transmission data mode as a priority scheme or alternative, infrared communication transmission data mode as a priority scheme or alternative, contact transmission The data mode / infrared communication transmission mode randomly or first completes the principle of priority election, etc., and is configured according to specific needs. As an example, the communication interface may also be combined with an infrared receiving module or an infrared transmitting module, for example, the communication interface of the module sends instructions, and the infrared receiving module of the module receives infrared signals related to mobile power; or, The infrared transmitting module sends instructions, and the communication interface of the module receives signals related to the mobile power supply; accordingly, the communication interface or infrared communication device on the mobile power supply matches the module.

As a preferred solution, the communication interface between the charging module and the mobile power source uses a thimble contact communication interface, and the thimble is in contact with the contact to realize data transmission. The infrared communication device includes an infrared transmitting module and an infrared receiving module.

When the charging module 100 lends or returns the mobile power source, the data transmission method between the charging module and the infrared communication device of the mobile power source and the communication interface (specifically, the communication thimble) is the same as described above. The mobile power source uses the communication interface and / or After the infrared communication device receives the instruction, the control module of the power supply controls the transmission of the mobile power related information to the module through the communication interface and / or the infrared communication device. Thereby, the identification of the mobile power source is completed when the mobile power source is lent or returned, and the mobile power source lent or returned is finally confirmed.

In the above embodiments, the control module (control board) 21 is the control center of the entire charging module, and each functional component is electrically connected to the control module 21. The control module 21 includes a data transmission component and one or more microprocessors. Under the control of the control module 21, each functional component works in an orderly manner according to the instructions of the control module 21. At the same time, the control module 21 is connected to the general control center of the mobile power self-service rental equipment, and performs data communication with the general control center. The main control center of the mobile power self-rental equipment can be a computer device or a main control board.

The control module 21 is arranged on the control main board of the module and is indicated by the same reference numeral. The control module 21 can be installed outside the charging module, can be installed inside or outside the casing 1, fixed on the outer wall, or can be installed on the mobile power supply self-rental. Any suitable location within the equipment.

In the following embodiments, the specific implementation and application of the infrared communication mode will be mainly described, but in various embodiments, the contact data transmission mode (or thimble contact contact data transmission mode) can be configured at the same time according to the above method. The principle is the same as the above embodiment, and will not be described in detail below.

Positioning structure of infrared communication device of charging module

In order to improve the accuracy of infrared transmission, the infrared communication device 223 is prominently disposed at one end of the infrared control PCB 20. Referring to FIGS. 5-12 to use FIG. 15, the infrared communication device 223 of the charging module is installed on the infrared control PCB 20, and the infrared communication device 223 is as close as possible to the corresponding infrared communication device 310 on the mobile power supply located in the silo. At least one infrared communication device 223 can be installed around the top, bottom or bottom of the charging module 100 silo. The infrared communication device 223 is disposed on the infrared control PCB 20, preferably protruding from one end of the PCB 20, and is disposed toward the silo 10, so as to be close to the infrared communication device 310 of the mobile power source in the silo, shortening the distance of the optical signal transmission, so that Signal transmission is more accurate and reliable.

In order to improve the positioning accuracy of the infrared communication device and further improve the accuracy of infrared sensing, the charging module is provided with a positioning structure for positioning the infrared communication device. The infrared control PCB 20 is installed and positioned on the module housing 1 through a positioning column / positioning hole. Specifically, a PCB positioning hole 201 is provided on the infrared control PCB 20, and a positioning column 101 is provided at a corresponding position on the housing. The positioning hole 201 corresponds to the positioning column 101 provided on the module. The diameter of the positioning hole 201 can be slightly larger than the module. The outer diameter of the positioning column 101 is adapted to the positioning column 101. Therefore, the positioning hole 201 can be fastened on the positioning column 101 of the module, so as to achieve accurate positioning of the PCB 20 and facilitate assembly during the production process. The number and position of the positioning posts and positioning holes can be set according to specific needs. In a specific example, the positioning post 101 is disposed in the installation bin 120 of the infrared control PCB 20 described below. The PCB 20 positioning hole 201 is fastened to the positioning column 101, and the PCB 20 can also be reinforced on the positioning column 101 by screws, thereby further realizing the fixed positioning of the PCB on the module 100. In order to further support the positioning of the infrared control PCB 20, the charging module is further provided with a plurality of baffles 105 and a plurality of limiting surfaces 106. In some embodiments, the baffle 105 and the limiting surfaces 106 are extended walls provided on the side of the positioning column 101 Formed, or the baffle 105 and the limiting surface 106 can also be independent extended wall structures for supporting the infrared control PCB 20 on the top. The following structure of the installation bin 120, the partition 102, the opening 103, and the PCB 20's arrangement and cooperation can further strengthen the positioning of the infrared communication device 223.

Anti-light interference structure of charging module and mobile power

In order to prevent the external light from interfering with the infrared communication device, the charging module 100 and / or the mobile power source 300 of the present invention are further provided with a light-proof interference structure. The anti-light interference structure includes at least one of the following structures: installed on the housing of the charging module in a way that the infrared communication device faces inward from the light, sets up an isolation installation compartment, sets up a partition to isolate the installation compartment from the silo, A light blocking plate, a semi-closed space of the infrared communication device, or a filter structure is provided.

Specifically, the anti-light interference structure includes at least one of the following structures:

The position of the infrared communication device near the corresponding infrared communication device on the mobile power source in the silo;

An end close to the infrared communication device and a side facing the external light incident, a light blocking plate is provided on the module housing for isolating and resisting the external light from irradiating the infrared communication device;

The infrared communication device is installed in a semi-enclosed space formed on the housing, and the semi-enclosed space has an exit for infrared signal transmission;

The filter is arranged on the housing of the charging module, and the infrared communication device is located behind the filter; the filter is set in the infrared light transmission path, and the infrared light is filtered by the filter during the transmission and is then received by the target receiving module receive.

In some specific embodiments, the infrared communication device is disposed on an infrared control PCB, and the infrared control PCB is mounted on a housing of the charging module. It can be understood that the infrared communication device of the present invention can also be directly installed at any suitable position around the silo road and the bottom top surface. The infrared communication device 223 is electrically connected to the control module 21 without installing a PCB 20. For example, it can be directly installed with an infrared tube.

In this embodiment, the PCB 20 is installed with the infrared communication device 223 and realizes the electrical connection between the infrared communication device 223 and the control module 21. The PCB 20 is fixed on the module 100 with the infrared communication device facing inward, that is, without the infrared communication device. One side is outward, and the side with the infrared communication device is the side facing inward, that is, the side facing the backlight, so as to reduce the interference of the external light on the infrared communication device. The module housing 1 is provided with an infrared control PCB installation bin 120, specifically, a partition plate 102 is provided on the charging module housing 1, and the partition plate 102 is used to enter and exit the PCB installation bin 120 and the mobile power source 10 Separated. An opening 103 is provided in the middle of the partition plate 102, and an infrared communication device 223 provided on the infrared control PCB protrudes from the opening 103 toward the bin 10 to approach the infrared communication device 310 of the mobile power source in the bin.

The infrared communication device 223 is prominently arranged on the PCB 20, which helps to further reduce the light interference on the PCB 20 installation channel. At the same time, the infrared communication device 223 on the module is closer to the mobile power in and out of the bin, shortening the optical signal transmission. The distance makes signal transmission more accurate and reliable.

In other embodiments, the infrared communication device 223 is arranged asymmetrically near one end of the PCB, and cooperates with the opening 103 in the middle of the partition plate 102 to help achieve the positioning of the PCB 20 and ensure that the infrared control PCB 20 can be used only when there is no infrared communication device. It can be successfully installed on the module 100 only when its side is facing up, thereby preventing the problem of incorrectly mounting the PCB with the front side facing the opposite during the assembly process, which increases the light interference, and prevents the anti-installation and improves the assembly efficiency.

Corresponding wall surfaces of the partition plate 102 and the module housing define the installation bin 120. As a specific embodiment, the module 100 is provided with partitions 102 perpendicular to the infrared control PCB 20 on both sides or one side of the mobile power storage bin 10 parallel to the direction in which the mobile power is moved in and out. 5-7, the partition plate 102 is disposed vertically on the PCB 20, and the PCB 20 is horizontally installed on the top of the positioning column 101. The positioning column 101 is disposed in the installation bin 120 and is vertically disposed on the bottom 14 of the module case. It can be understood that the partition plate 102 and the installation bin 120 can also be provided at least one of the front and rear ends of the housing of the charging module, wherein the front end corresponds to the entrance of the mobile power into the module, and the rear end corresponds to the end of the module (that is, the back Board) side. The partition plate 102 and the mounting bin 120 are also disposed on at least one side of the top or bottom of the charging module, corresponding to the front and back sides of the mobile power source in the bin, and corresponding to the top cover 17 and the bottom 14 of the module housing. Correspondingly, the infrared control PCB 20 can be fixed on both sides, front and rear, bottom or top of the silo or casing, and the infrared communication device 223 provided on the infrared control PCB 20 can be correspondingly disposed on both sides of the silo or casing, front and rear. , At least one side or at least one side of at least one side of the bottom surface or the top surface.

A light blocking plate 104 is provided on the module housing 1 at an end near the infrared communication device 223, a side where the external light is incident, or a side facing the warehouse entrance 11 to isolate and block the external light from irradiating the infrared communication device 223 to avoid light interference. In the specific example, a light blocking plate 104 perpendicular to the PCB 20 and the partition plate 102 is provided below the PCB. The light blocking plate 104 is located near the infrared communication device 223 (front end or near the gate 11). It can be set separately or at The positioning column is arranged according to the specific space. Another support baffle 105 is provided behind the light blocking plate 104 and at the other end of the infrared communication device 223, and can be set on a positioning post as a positioning post baffle. The support (or positioning column) baffle 105, light blocking plate 104, bottom 140, baffle 102, and PCB 20 connected together form a semi-enclosed space, leaving only the exit 103 for infrared signal transmission, thereby effectively shielding Isolate interference from external light. A limiting surface 106 is further provided in the installation bin 120. An extension wall may be formed by the side of other positioning columns, and a limiting surface is formed on the top thereof to further support and limit the PCB 20, thereby positioning the infrared communication device 223 more accurately.

A filter may also be provided between the mobile power infrared communication device 310 and the module infrared communication device 223 to filter out interference light, so that infrared signal transmission is not interfered by other light, and improve the accuracy of signal transmission. As shown in FIGS. 8 and 11-14, in some embodiments, the filter may be provided on the front end of the infrared communication device 310 of the mobile power supply, or on the front end of the infrared communication device 223 on the module, or at the same time. Front of the infrared communication device of the power supply and charging module (see Figure 13-15). The filter is located between the mobile power supply and the module's infrared communication device. The infrared light emitted by the infrared communication device is filtered by the filter before it is received by the receiver. The infrared light is received by the target receiving module after being filtered by a filter during transmission. In the charging module 100 of FIG. 5-12, a filter may be provided in front of the infrared communication device 223 (between the infrared communication device 223 and the infrared communication device of the mobile power supply in the silo). Referring to FIGS. 13-15, in the mobile power rental equipment 1000, the infrared communication device 223 is disposed at the end inside the silo 10, and the front end of the infrared channel of the infrared communication device 223 is provided with a filter correspondingly. 26. The infrared communication device 223 is located behind the filter 26. A light filter 306 is provided on the mobile power source housing, and the infrared communication device 310 is located behind the filter. After the top of the mobile power self-rental setting is inserted into the internal end of the silo, the infrared communication device 310 installed at the end of the mobile power is directly opposite the infrared communication device 223 installed at the end of the silo. Between the infrared communication device 223 and the mobile power infrared communication device 310. After the mobile power is returned in place, the

filters

26 and 306 are opposite to each other and located between the module infrared communication device 223 and the mobile power infrared communication device 310. During the transmission of the infrared light signal, the interference light signal is filtered by the filter.

In some embodiments, referring to FIG. 8, an infrared communication device 310 is provided in the mobile power source housing, and an infrared sensing window 330 is provided on the mobile power source housing corresponding to the transmission channel of the infrared sensing signal. The infrared communication device 310 is located inside or behind the infrared sensing window 330. The window 330 may be provided with a filter. After the mobile power is returned in place, the filter is located between the module infrared communication device 223 and the mobile power infrared communication device 310 for filtering external interference light. In other embodiments, the window 330 may also be set as a transparent window, and a power or status indicator is also provided on the inside of the window. When the infrared communication device 310 inside the back of the window is not working, the window 330 may be used to display the power of the mobile power supply or Power bank lock status. For example, the mobile power source 300 is set as follows: When the mobile power source 300 is shaken, the green light transmitted through the window 330 is always on, indicating that the power is sufficient; the green light is flashing, indicating that the power is insufficient. When the infrared communication device 310 is in operation, it is not used to display the power level or the locked state of the mobile power source. The infrared light signal emitted by the mobile power source or module can be received by the corresponding receiving module through a transparent window.

In other embodiments, two windows are also provided on the mobile power housing for filtering the interference of external light and displaying the electric power. Specifically, a filter window 330 is provided to locate the infrared sensing signal of the infrared communication device 310 of the mobile power. On the transmission channel, you can also choose whether to set another window to display the power or the module status according to your needs.

Anti-plug-in structure of charging module and mobile power

The mobile charging module 100 with a non-contact communication device according to the embodiment of the present invention uses the non-contact communication device to read information. The response is fast and sensitive, the information is read accurately, and it is not easy to be interfered. Further, starting from the user experience, The structure and electronic design are optimized for anti-plug and anti-reverse structure, so that when the mobile power is returned, the user can successfully return it regardless of which side or end is plugged in, fully improving the user experience, and improving the return efficiency.

In the embodiment of the present invention, the contactless communication device and / or the communication interface is disposed at a position of the charging module so that the mobile power source faces up with either of its front and back sides, and / or with either of its front and rear ends facing inward. Direction into the silo, the contactless communication device of the charging module and the contactless communication device of the mobile power supply form the contactless data transmission mode, and / or, the communication interface of the charging module communicates with the mobile power supply. A contact transmission data mode is formed between the interfaces. In some specific embodiments, the position where the contactless communication device is disposed on the charging module includes:

The charging module includes a non-contact communication device arranged at the center point position on either side, or any side, or at either end of the charging module silo. The adapted mobile power source includes at least one non-contact communication device setting. On the center point of either side of the opposite sides of the mobile power source, or any side of the opposite sides, or any end of the opposite ends.

At this time, the interface settings of the module and the mobile power supply only need to meet the charging / communication of the mobile power supply when the mobile power supply is inserted into the silo with either of its front and back sides facing up, and / or with its front and rear ends facing inward. The corresponding contacts between the interfaces are conducted. Generally, the interface can be set at the front and rear of the module silo or mobile power supply. It can be centralized or distributed, and it can be located at the center or both sides.

As an embodiment, the infrared communication device and / or communication interface of the charging module is located on at least one of two sides of the silo, parallel to the mobile power source in and out direction, at least one of the bottom and top surfaces of the silo, or at least one of the front and rear ends of the silo. , The number of infrared communication devices and / or communication interfaces is at least one; the infrared communication devices and / or communication interfaces are set at the position of the charging module to meet: the mobile power supply with either of its front and back sides facing up and / or its front and back Insert any end of the terminal into the silo, the infrared communication device of the charging module and the infrared communication device of the mobile power supply form an infrared communication transmission data mode, and / or, the communication interface of the charging module and the communication interface of the mobile power supply Form a contact data transmission mode. The transmitted data includes mobile power information. The mobile power information includes one or more of identification information (such as ID or SN code) of the mobile power, status information of the mobile power, working status information of the mobile power or its components, and fault information. Mobile power status information includes one or more of power, power temperature, charging current, number of cycles, number of uses, and cumulative charging service duration or remaining service duration, and the encryption or decryption status of the power output function of mobile power . The transmission data includes: the charging module transmits an instruction to the mobile power source to send the mobile power source information, and / or the charging module receives the mobile power source information sent by the mobile power source.

Referring to FIGS. 5-10 again, as a specific embodiment, infrared communication devices 223 are provided on both sides of the mobile power silo 10 of the charging module. Each infrared communication device 223 is provided with an infrared transmitting module 22 and an infrared receiving module 23. Infrared control PCBs 20 are correspondingly provided on both sides of the module 100. The PCBs 20 are positioned on both sides of the module by positioning columns 101. Infrared communication devices 223 are protrudingly disposed on one side of the PCB 20 and extend into the partition opening 103. Corresponding positions of the mobile power source 300 adapted to the charging module also include an infrared communication device 310, which is disposed on one of the left and right sides of the mobile power source. The position of the infrared communication device 310 on the mobile power supply can be further provided with an infrared sensing window 330 (FIG. 8). The transmitting module and the receiving module of the mobile power infrared communication device can communicate with the receiving module 23 of the infrared communication device on the module through the window 330. Corresponds to the transmitting module 22 to realize the sending and receiving of signals between the mobile power supply 300 and the module 100.

In order to prevent the return failure of the mobile power plug, in this embodiment, one of the left and right sides of the mobile power is provided with an infrared communication device 310, and the left and right sides of the module 100 are provided with two infrared communication devices 223 correspondingly. When the user randomly chooses to return the mobile power supply 300 with the side facing upwards, since the infrared communication device 310 on the mobile power supply can successfully correspond to the infrared communication device 223 on the module no matter which side it is located on, the module 100 can succeed. Read mobile power information and realize return.

In other embodiments, two infrared communication devices 310 may be provided on the left and right sides of the mobile power supply, and one infrared communication device 223 may be provided on the left and right sides of the module 100 correspondingly.

11-12, in another embodiment, two infrared communication devices 310 are provided on the upper and lower sides of the mobile power supply 300, and an infrared communication device 223 is provided on at least one of the upper and lower sides of the module 100, that is, the top cover 17 of the module housing (FIG. 9) or a bottom 14 corresponding to an infrared communication device 223. Alternatively, an infrared communication device 310 is provided on one of the upper and lower sides of the mobile power source 300, and an infrared communication device 223 is correspondingly provided on the top surface and the bottom surface of the module.

In other embodiments, an infrared communication device 310 is provided at the front or rear end of the mobile power source 300 (relative to the direction in which the mobile power source enters and exits the warehouse), and the corresponding end of the module (the back panel opposite the warehouse entrance 11) 13) An infrared communication device 223 is provided. Alternatively, an infrared communication device 310 is provided at the front or rear end of the mobile power supply, and one infrared communication device is provided at each of the module end back plate 13 or the mobile power entrance and exit, that is, the silo entrance 11. In this way, the user can return the mobile power no matter which side is up or which end is facing in, and the mobile power rental device can successfully read the information.

13-15, in another embodiment of the present invention, the mobile power rental device has a downward desktop structure. The charging module of this embodiment is directly set by the host of the rental device 1000, and each warehouse 10 is opened on the host. Each silo 10 corresponds to a charging module 100 structure. The silo entrance 11 is located at the top of the device. The inner walls of the perimeter of the silo correspond to the two sides of the charging module and the top and bottom corresponding to the front and back sides of the mobile power supply. The opposite ends 13 are located at the upper and lower ends respectively according to the orientation shown in the figure, corresponding to the front and rear ends of the charging module. In this embodiment, an infrared communication device 223 is provided on both sides of the end of the charging module, and a charging

thimble

24, 25 and a communication thimble 29 are also provided on the end of the module. The two infrared communication devices 223 are located on both sides of the thimble, and both are provided. On the same end 13 of the module. The front end of the mobile power supply is provided with an infrared communication device 310 and contacts corresponding to the number and position of the thimbles. When the front and back sides of the mobile power supply can be inserted into the bin 10 of the module 100 without distinction, the infrared communication device 310 on the front end of the mobile power supply and The infrared communication device 310 on the left or right side of the end of the silo forms an inductive cooperation for data transmission; the corresponding contact between the charging thimble and the charging contact is conducted and can be used to charge the mobile power supply. The communication thimble 29 is in contact with the corresponding contact. Thimble contact contact data transmission mode can be used for data transmission between mobile power. The configuration methods of the thimble contact contact data transmission mode and the infrared communication transmission data mode are the same as those in the foregoing embodiments, and are not repeated here.

In other embodiments, the infrared communication device 310 may also be disposed at the center of the mobile power source 300, that is, at the intersection of the diagonal lines of the mobile power source, and the corresponding position on the charging module 100, that is, the front and back sides of the mobile power source. At least one infrared communication device 223 is provided at the center of the top surface of the module or the center of the bottom surface of the module, so that when the user inserts the mobile power source 300 into the module 100 regardless of which side is facing up and which end is facing in, the mobile power source can be successfully returned To fully improve return convenience and user experience.

At this time, the charging interface / communication interface of the mobile power supply may be correspondingly provided on the front and rear end faces of the mobile power supply, and the charging interface / communication interface of the charging module may be provided at the end 13 of the charging module. No matter which end of the mobile power source enters the warehouse inward, the contact between the module and the interface of the mobile power source is conducted for charging and / or data transmission.

When the mobile power supply 300 is inserted into the mobile power supply bin 10, the control module 21 of the charging module controls the infrared transmitting module 22 on the charging module to send a first light signal to the mobile power supply 300, and the infrared receiving module 23 on the mobile power supply 300. Receives the optical signal, and feeds back the signal to the control module inside the mobile power supply (which can be a mobile power single-chip microcomputer or a control circuit board). The mobile power control module receives the optical signal and controls the infrared transmitting module on the mobile power supply to send the mobile power information , Mobile power identity information, version number, mobile power status information (including mobile power power, power temperature, charging current, number of uses, mobile power power output function switch status, mobile power failure information, mobile power components working status information The second optical signal of one or more of the following types is sent to the infrared receiving module 23 on the charging module. The infrared receiving module 23 on the charging module receives the optical signal and reads the data, and feeds this back to the charging module. The control motherboard on the group, the control motherboard 21 can transmit information to the overall control of the mobile power rental equipment Heart or transmitted to the server, thereby completing the identification of mobile power information. The infrared transmitting module and the receiving module of the mobile power supply are disposed in the infrared communication device 310.

By using the anti-plugging structure of the various embodiments described above between the charging module and the mobile power source, the user can successfully return the mobile power source from either end or any side to the top to improve the user experience. Prevent the failure of returning the mobile power supply in the correct direction, and ensure that the mobile power supply can be successfully returned regardless of which side is facing up or which end is facing in, and improve the user experience.

The non-contact communication device provided on the charging module and the mobile power source according to the embodiments of the present invention is preferably an infrared communication device including an infrared receiving module and an infrared transmitting module. The mobile power source 300 is provided with at least one infrared communication device 310, and the charging module 100 is correspondingly provided with at least one infrared communication device 223. Preferably, at least one infrared communication device 310 is provided on the mobile power source 300, and at least two infrared communication devices 223 are correspondingly provided on the charging module 100.

In the embodiment of the present invention, the setting of the infrared communication device 223 of the charging module and the infrared communication device 310 of the mobile power source can send and receive data in a coordinated manner, thereby realizing whether the mobile power source faces up or which end faces inward. Both can realize the signal conduction between the corresponding infrared transmitting module and infrared receiving module. The control motherboard can successfully read the mobile power information and perform the operation of returning the mobile power. The position of the infrared communication device 223/310 on the charging module and mobile power includes but Not limited to: It can be installed on at least one side or at least one side or at least one of the left and right sides, the upper and lower sides, or the front and rear ends of the mobile power source. On at least one side or at least one side or at least one end; or, the infrared communication device can also be set at the center symmetry point of at least one of the six sides of the mobile power supply. After the mobile power supply is inserted into the charging module, the charging module corresponds to the infrared communication device. At least one infrared communication device is also provided at the location. This setting cooperates with other structural adjustments to ensure that the mobile power can be successfully returned to the mobile power no matter which side is facing up or which end is facing in. Or, when the mobile power supply sets an infrared communication device at the center symmetrical point of one of the upper and lower sides, and the charging module also sets an infrared communication device at the corresponding position on the corresponding top or bottom surface, the setting It can also achieve the convenient effect that the mobile power supply can be successfully returned regardless of which end is facing in the case of the fixed power side facing up; when the mobile power supply is provided with an infrared communication device at the center symmetrical point of one of the upper and lower sides, When the charging module is also provided with an infrared communication device at a corresponding position on the corresponding top surface and bottom surface, this setting can achieve the convenient effect of successfully returning the mobile power source no matter which end is facing in or which side is facing up. For the same reason, corresponding settings can be made on the corresponding other faces or ends of the mobile power source and the charging module, so as to achieve the above-mentioned convenient effect of returning the mobile power source.

It should be noted that the infrared signal has a certain radiation range. As long as the distance between the infrared transmitter and the receiver is within the radiation range of the infrared signal, even the infrared transmitter and receiver of the mobile power supply and charging module are not strictly positioned. Directly facing, the successful receiving and sending of the infrared signal can also be achieved, so the "corresponding position" or "corresponding setting" includes the position of the effective radiation range of the infrared signal.

If the convenience of returning the mobile power is not considered, the infrared communication device on the mobile power and the charging module only needs to be set at one of the corresponding positions, and the mobile power can be returned in the specified direction.

The infrared communication device 310 can also be set at the end of the mobile power source that first enters the module, that is, the two front ends, to ensure that the infrared communication device 223 of the module can successfully read the ID / SN signal and perform data no matter which side of the mobile power source is facing up. transmission.

In order to achieve the convenient effect of returning mobile power, when the infrared communication device is not set on the center symmetrical point of the corresponding surface of the mobile power or charging module, the number of infrared communication devices can also be set as follows:

When at least one infrared communication device is provided on the mobile power source, at least two infrared communication devices are provided on the charging module; when at least two infrared communication devices are provided on the mobile power source, at least one charging module is correspondingly provided. Preferably, two are provided on the charging module and one is on the mobile power supply, because the number of charging modules is much less than the number of mobile power supplies. This setting can reduce the corresponding production design workload and is more convenient for later stages. Repair and maintenance of equipment.

In short, the infrared communication devices can be symmetrically or asymmetrically arranged on the mobile power supply and the charging module, and the number can be one, two, or more, as long as the convenience of mobile power return can be met. For example, an infrared communication device may be provided at the middle position on the left side of the upper surface of the power bank and on the right side of the bottom surface of the mobile power source. An infrared communication device is correspondingly arranged at the middle position on the right side of the surface, and the mobile power source can also be successfully returned regardless of which side faces up and which end faces inward. It should be noted that when the infrared communication device on the mobile power supply is arranged asymmetrically, the infrared communication device on the charging module must also be set according to the location of the infrared communication device after the mobile power supply is inserted into the module.

In some embodiments, the charging module 100 is provided with a thimble, and the mobile power source 300 is provided with a metal contact. The contact between the thimble and the metal contact can realize the function of charging the mobile power source and / or transmitting the mobile power source ID / SN information. .

An infrared communication device is added between the charging module and the mobile power source of the present invention, and infrared transmission information is performed between them, thereby completing identification of the mobile power source ID / SN information and reading of other information, which overcomes the prior art due to the aging of the thimble. The problem of failure to read information caused by poor contact with metal contacts occurs, which improves the efficiency of information identification and mobile power return efficiency, saves return time, and improves user experience.

The invention provides a positioning structure for the infrared communication device PCB, including the asymmetric design of the infrared communication device PCB, which helps prevent the PCB from being reversed during the tooling process and improves the assembly efficiency. The prominent setting of the infrared communication device 223 on the PCB 20 also reduces the light interference on the PCB channel and shortens the infrared signal transmission distance, ensuring that the infrared signal transmission is more accurate and reliable. The PCB positioning column 101 and the limiting surface 106 help to realize the precise positioning of the PCB and ensure the control and installation of the position of the infrared communication device 223 on the module.

In the above embodiment of the present invention, by placing the infrared communication device 223 on the PCB 20, the distance between the infrared communication device on the module 100 and the infrared communication device on the mobile power source 300 is shortened, and the accuracy of signal transmission is improved.

In the above embodiment of the present invention, the anti-light interference structure of the infrared communication device is provided, which includes a PCB inverted buckle and a combination of different baffles. More specifically, it includes a PCB 20 inverted buckle, a positioning pillar baffle 105, and a light blocking plate 104. The bottom of the positioning column baffle and the light blocking plate, the PCB partition 102, and the infrared communication device 223 protruding from one end of the PCB 20 near the silo, forming an exclusive transmission channel of infrared sensing signals, effectively blocking outside The entry of light reduces external light interference from infrared signal transmission.

The charging interface and / or communication interface provided on the charging module, such as a thimble, Type-C interface, Micro USB interface, Lightning interface, contact type or DC interface, etc., and the charging interface and / or communication interface provided on the mobile power supply Correspondingly, according to specific design requirements, one or more sets of charging interfaces may be provided for charging the mobile power source or transmitting data to and from the mobile power source.

In other embodiments, the infrared communication device may be replaced with another wireless communication device for information communication. The wireless communication device uses non-contact communication technology, such as infrared transmission, Bluetooth transmission, NFC technology, WIFI technology, RFID technology, etc. The group 100 communicates with the corresponding non-contact communication device of the corresponding mobile power source 300 to realize information communication between the charging module and the mobile power source, which improves the efficiency of information transmission, reading and identification, and the efficiency of mobile power return. Save return time and improve user experience. Those skilled in the art can implement a non-contact communication device for installing and setting the charging module 100 and the corresponding mobile power source 300 according to the infrared communication device in the above embodiments. As an embodiment, the charging module 100 is provided with an installation bin 120 on which the contactless communication device 223 is installed, and the contactless communication device 223 of the charging module is close to the corresponding contactless on the mobile power source 300 in the bin 10 The location of the communication device 310 is set. The housing 1 of the charging module is provided with a partition plate 102. The partition plate 102 separates the non-contact communication device 223 from the compartment 10 into and out of the mobile power supply and defines an installation bin 120. The partition 102 is provided with an opening 103 for non-contact The communication device 223 protrudes from the opening 103 of the partition plate near the silo 10 in which the mobile power source enters and exits. Other embodiments of the charging module 100 and the mobile power source 300 with a non-contact communication device can be implemented by those skilled in the art with reference to the above-mentioned embodiments of the infrared communication device, and details are not described herein.

The technical means in the foregoing embodiments, which can be combined with each other to form a transformed embodiment, all belong to the scope disclosed by the present invention.

The server described in the above embodiments may be a traditional server or a cloud server.

In the description of the present invention, it needs to be understood that the terms "length", "width", "upper", "lower", "front", "rear", "left", "right", "vertical", The orientations or positional relationships indicated by "horizontal", "top", "bottom", "inner", "outer" are based on the orientations or positional relationships shown in the drawings, and are only for the convenience of describing the present invention and simplifying the description, rather than The indicated or implied device or element must have a specific orientation, be constructed and operate in a specific orientation, and therefore should not be construed as a limitation on the present invention.

In addition, the terms "first" and "second" are used for descriptive purposes only, and cannot be understood as indicating or implying relative importance or implicitly indicating the number of technical features indicated. Therefore, the features defined as “first” and “second” may explicitly or implicitly include one or more of the features. In the description of the present invention, the meaning of "plurality" is two or more, unless specifically defined otherwise.

In the present invention, the terms "installation", "connected", "connected", "fixed" and other terms shall be understood in a broad sense unless otherwise specified and defined, for example, they may be fixed connections or removable connections , Or integrated; it can be a mechanical connection, an electrical connection or a connection that can transmit data; it can be directly connected, or it can be indirectly connected through an intermediate medium; it can be the internal communication of two elements or the interaction of two elements relationship. For those of ordinary skill in the art, the specific meanings of the above terms in the present invention can be understood according to specific situations.

The terms "a" or "an" and the like mentioned in the specification or claims of the present invention include two or more cases, except when it is explicitly indicated that only one is used. For example, the word "one infrared communication device" may include, and should be considered to include, a plurality of infrared communication devices. By the same token, the "two" or "two" mentioned in the specification or claims includes two cases of two or more, except when it is clearly indicated that only two. Sometimes, the claims and the description may include words such as "plurality", "one or more", or "at least one", but when there is no such limitation, it does not mean and should not be interpreted as meaning, Can't imagine multiple.

Although the embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, and replacements of these embodiments can be made without departing from the principle and spirit of the present invention. And variations should all fall within the scope of this application; the scope of protection of the present invention is defined by the appended claims and their equivalents.

Claims

A mobile power charging module includes a housing, and the housing is provided with a silo for accommodating the mobile power and for charging and accessing the mobile power. The charging module further includes a control module and is connected to the control module. Contactless communication device, the charging module forms a contactless data transmission mode through the connection between the contactless communication device and the contactless communication device provided on the mobile power supply inserted in the silo, thereby realizing the charging module and Data is transmitted between mobile power sources in the module silo.
The mobile power charging module according to claim 1, wherein the non-contact communication device comprises one or more of an infrared communication device, a Bluetooth communication device, an NFC communication device, a WIFI communication device, and an RFID communication device. The contactless communication device package receiving module of the charging module is used for receiving the data transmitted by the transmitting module of the contactless communication device of the mobile power supply; the contactless communication device of the charging module further includes a transmitting module for transmitting to the The receiving module of the contactless communication device of the mobile power source transmits data.
The mobile power charging module according to claim 2, wherein the mobile power charging module further comprises a communication interface connected to the control module, and the charging module is connected to the mobile power inserted in the silo via the communication interface. Contact connection between communication interfaces to form a contact data transmission mode;

The charging module is configured such that the non-contact data transmission mode and the contact data transmission mode coexist or select an appropriate method to realize data transmission between the charging module and the mobile power source in the module bin;

The data transmitted in the contact data transmission mode and / or the contactless data transmission mode include instructions and / or mobile power information.
The mobile power charging module according to claim 3, wherein the data transmission mode between the charging module and the mobile power in the module silo is configured as:

Contact data transmission mode and contactless data transmission mode coexist simultaneously; or

Preferentially select a contact data transmission mode and an alternative contactless data transmission mode; or,

Priority contactless data transmission mode, alternative contact data transmission mode; or,

Either the contact data transmission mode or the non-contact data transmission mode is used for data transmission on the principle of random selection or competition selection;

The mobile power information transmitted in the contact data transmission mode and / or the contactless data transmission mode includes one or more of identity information, version number, and mobile power status information of the mobile power.
The mobile power charging module according to claim 4, wherein the mobile power status information of the contact transmission data mode and / or contactless transmission includes power of the mobile power, power temperature, charging current, number of uses, and power of the mobile power Outputs one or more of function switching status, mobile power failure information, and working status information of components of the mobile power supply; non-contact transmission data mode and contact transmission data mode transmit the same data; the transmitted mobile power information Sent by the mobile power control module to the contactless communication device and / or communication interface;

The data transmission instruction includes:

The charging module control module transmits an instruction instructing the mobile power control module to send mobile power information to the mobile power control module; or

The charging module control module transmits to the mobile power control module an operation instruction instructing the mobile power control module to perform the function of encrypting or decrypting the power output of the mobile power.
The mobile power charging module according to claim 3, wherein the charging module uses a non-contact data transmission mode and / or a contact data transmission mode to transmit data to and from a mobile power supply in a module silo, The operating procedures thus achieved include:

The contactless communication device through the charging module adopts a contactless data transmission mode, and / or its communication interface adopts a contact data transmission mode to read mobile power information, and the control module further sends the read mobile power information to The general control center of mobile power rental equipment, the general control center or server further completes the return or lending procedure of mobile power; or

The charging module uses the contactless data transmission mode according to its contactless communication device, and / or its communication interface adopts the contact data transmission mode to read whether the mobile power source information has failed, and sends the information that the mobile power source information fails to the mobile device. The general control center of the power rental equipment, so that the general control center or further reports the fault information to the server; or

The contactless communication device of the charging module adopts a contactless data transmission mode, and / or, its communication interface adopts a contact data transmission mode, and sends an instruction to the mobile power source to encrypt or decrypt the power output function of the mobile power source, thereby executing the mobile power source. A program to turn off the power output function after returning or a program to turn on the power output function before lending the mobile power.
The mobile power charging module according to claim 3, wherein the charging module includes a charging interface connected to the control module, and the charging interface of the charging module is used to connect with the charging interface of the mobile power in the warehouse. The electrical connection is used to charge the mobile power supply; the communication interface and / or the charging interface of the charging module are contact interfaces, and the mobile power in the module is provided with a corresponding contact interface; the contact interface of the charging module includes a spring Thimble or rigid interface.
The mobile power charging module according to claim 7, wherein the hard interface comprises one or more of a hard thimble, a Type-C interface, a Micro USB interface, a contact interface, a Lightning interface or a DC interface; The control module is disposed on the control motherboard of the charging module; the communication interface and / or the charging interface of the charging module are disposed on the control motherboard; a thimble contact is formed between the interface of the charging module and the interface of the mobile power supply in the module Contact and / or contact between contacts and / or interface between male and female, so that the charging module charges the mobile power or transmits data to and from the mobile power; the housing of the charging module is equipped with an assembly communication interface And / or a guide and positioning structure of the charging interface, the guide and positioning structure includes one or more of a guide and positioning post, a guide and positioning hole, a screw fixation, a slot, and a guide slope structure.
The mobile power charging module according to claim 3, wherein the communication interface of the charging module is a thimble; the communication thimble of the charging module is in contact with the contact of the mobile power source to form a thimble contact contact data transmission mode .
The mobile power charging module according to claim 3, characterized in that the non-contact communication device and / or the communication interface is disposed at a position of the charging module so that the mobile power is faced up with any of its front and back sides, and / Or insert it into the silo with either of its front and rear ends facing inward, the contactless communication device of the charging module and the contactless communication device of the mobile power supply forming the contactless data transmission mode, and / or, charging The communication interface of the module and the communication interface of the mobile power supply form a contact data transmission mode.
The mobile power charging module according to claim 1, wherein the position of the non-contact communication device disposed on the charging module comprises:

The charging module includes two non-contact communication devices that are symmetrically disposed on one or both sides of opposite sides of the charging module bin, or are symmetrically disposed on one or both sides of opposite sides, or are symmetrically disposed on one end or ends of opposite ends, or At both ends, the adapted mobile power source includes a non-contact communication device disposed on either side of the opposite sides of the mobile power source, or on either side of the opposite two sides, or at a corresponding position on either end of the opposite ends; or

The charging module includes a non-contact communication device which is set at a non-center point on either side, or on either side, or at either end of the charging module silo. The adaptable mobile power source includes two non-contact communication devices. Symmetrically disposed on one or both sides of the opposite sides of the mobile power source, or one or both sides of the opposite sides, or one or both ends of the opposite ends; or

The charging module includes a non-contact communication device located at the center point of either side, or any side, or at either end of the charging module silo. The adaptable mobile power source includes a non-contact communication device located at On either side of the opposite sides of the mobile power source, or on either side of the opposite sides, or on the center point of either end of the opposite ends.
The mobile power charging module according to any one of claims 1 to 11, wherein the non-contact communication device is an RFID communication device, and the non-contact data transmission mode corresponds to the RFID of the charging module. The inductive connection between the communication device and the RFID communication device provided on the mobile power supply in the silo forms an RFID communication transmission data mode; the charging module is configured to coexist or select the RFID communication transmission data mode and the contact transmission data mode to apply This way, data is transmitted between the charging module and the mobile power supply in the module silo; the data includes mobile power information or instructions.
The mobile power charging module according to any one of claims 1 to 11, wherein the non-contact communication device is an infrared communication device, and the non-contact transmission data mode corresponds to an infrared of the charging module. The communication device is connected to the infrared communication device provided on the mobile power supply in the warehouse to form an infrared communication transmission data mode; the charging module is configured to coexist or select the applicable infrared communication transmission data mode and the contact transmission data mode. Way to achieve data transmission between the charging module and the mobile power supply in the module silo; the infrared communication device of the charging module includes an infrared receiving module for transmitting data with the transmitting module of the infrared communication device of the mobile power supply; charging The infrared communication device of the module also includes an infrared transmitting module for transmitting data to and from the infrared receiving module of the infrared communication device of the mobile power source; the data includes mobile power source information or instructions.
The mobile power charging module according to claim 13, wherein the way of transmitting data between the charging module and the mobile power in the module silo is configured as:

Coexistence of contact data transmission mode and infrared communication data transmission mode; or

Preferentially select the contact data transmission mode and the infrared communication transmission data mode; or,

Preferentially select the infrared communication transmission data mode and the contact transmission data mode; or

Either the contact data transmission mode or the infrared communication transmission data mode is used for data transmission in a randomly selected or competitively selected manner.
The mobile power charging module according to claim 14, wherein the interface of the charging module includes two or more thimbles; the charging interface of the charging module is a charging thimble, and the communication interface of the charging module is communication Thimble; the contact data transmission mode is a contact pin data transmission mode formed by the communication module of the charging module and the contact of the mobile power source; the data transmission between the charging module and the mobile power source in the module silo The configuration is:

The thimble contact contact data transmission mode and the infrared communication transmission data mode coexist simultaneously; or

Preference is given to the contact data transmission mode of the thimble contact, the alternative infrared communication data transmission mode; or,

Preferentially select the infrared communication transmission data mode and the thimble contact contact data transmission mode; or

Either the thimble contact contact data transmission mode or the infrared communication transmission data mode is used for data transmission on the principle of random selection or competition selection.
The mobile power charging module according to claim 13, wherein the charging module further comprises an anti-light interference structure, and the anti-light interference structure includes: setting an infrared communication device to shorten an infrared light signal transmission distance, and using infrared communication The device is installed in the housing of the charging module in an inward direction and protected from light, an isolation installation compartment is installed, a partition is installed to isolate the installation compartment and the aisle, a light shield is installed, an infrared communication device is enclosed in a semi-enclosed space, or an optical filter is installed. One or more.
The mobile power charging module according to claim 13, wherein:

The position of the infrared communication device near the corresponding infrared communication device on the mobile power source in the silo;

An end close to the infrared communication device and a side facing the external light incident, a light blocking plate is provided on the module housing for isolating and resisting the external light from irradiating the infrared communication device;

The infrared communication device is installed in a semi-enclosed space formed on the housing, and the semi-enclosed space has an exit for infrared signal transmission;

The filter is arranged on the housing of the charging module, and the infrared communication device is located behind the filter; the filter is set in the infrared light transmission path, and the infrared light is filtered by the filter during the transmission and is then received by the target receiving module receive;

The infrared communication device is disposed on an infrared control PCB, which is mounted on the housing of the charging module; the infrared control PCB is fixedly positioned on the housing of the charging module through a positioning structure; the positioning structure includes a positioning column / One or more of a fitting structure of a positioning hole, a screw fixing positioning structure, a limiting surface supporting positioning structure, and a card slot positioning structure.
The mobile power charging module according to claim 13, wherein the infrared communication device and / or the communication interface of the charging module are arranged at a position of the charging module so that the mobile power is in any of its front and back sides Insert into the silo upward and / or with either end of the front and rear ends inward, the infrared communication device of the charging module and the infrared communication device of the mobile power supply form the infrared communication transmission data, and / or, the charging module ’s A contact transmission data is formed between the communication interface and the communication interface of the mobile power source.
The mobile power charging module according to claim 13, wherein the configuration method for forming infrared communication to transmit data between the charging module and the mobile power inserted into the silo includes:

The charging module includes two infrared communication devices symmetrically arranged on one or both sides of the silo parallel to the direction in which the mobile power source is moved in and out, and the adapted mobile power source includes an infrared communication device disposed at the corresponding position on one side of both sides of the mobile power source. ;or

The charging module includes an infrared communication device disposed on one side of both sides of the silo, and the adapted mobile power source includes two infrared communication devices respectively disposed on one side or two corresponding positions of the mobile power source; or

The charging module includes an infrared communication device disposed on one side of the top and bottom surfaces of the silo, and the adapted mobile power source includes two infrared communication devices disposed on one or both sides of the mobile power source at the corresponding positions; or

The charging module includes two infrared communication devices symmetrically disposed on one or both sides of the top and bottom surfaces of the silo, and the adapted mobile power source includes an infrared communication device disposed on a corresponding position on one of the front and back sides; or

The charging module includes two infrared communication devices symmetrically disposed at one end or both ends of the front and rear ends of the silo, and the adapted mobile power source includes an infrared communication device disposed at a corresponding position at one end of the front and rear ends; or

The charging module includes an infrared communication device disposed at one end of the front and rear ends of the silo, and the adapted mobile power source includes two infrared communication devices disposed symmetrically at one or both ends of the front and rear ends of the mobile power source; or

An infrared communication device is provided at the center point of at least one of the sides of the charging module silo, the top and bottom surfaces, and the corresponding front and rear ends. The center point of at least one of the six sides of the mobile power supply inserted into the charging module silo. There is an infrared communication device.
A mobile power rental equipment, including a general control center, characterized in that the mobile power rental equipment further includes a plurality of mobile power charging modules according to any one of claims 1-19; The control module is connected to the main control center.
A mobile power source includes a casing, a battery core in the casing, a control module, and a charging interface, characterized in that the mobile power source further includes a non-contact communication device; a cell of the mobile power source, a non-contact communication device, and charging The interface is respectively electrically connected to the control module of the mobile power supply; the charging interface of the mobile power is used to connect with the charging interface of the charging module where the mobile power is located to realize charging of the mobile power; the non-contact communication device of the mobile power is used to connect to the charging module The data transmitted between the non-contact communication devices of the mobile phone forms a non-contact communication transmission data mode; the control module controls the non-contact communication device of the mobile power supply to transmit data to the charging module.
The mobile power supply according to claim 21, wherein the non-contact communication device comprises one or more of an infrared communication device, a Bluetooth communication device, an NFC communication device, a WIFI communication device, and an RFID communication device; mobile The contactless communication device package of the power supply receives a module for receiving data transmitted by the transmitting module of the contactless communication device of the charging module; the contactless communication device of the mobile power supply further includes a transmitting module for transmitting data to the charging module. The receiving module of the contactless communication device transmits data.
The mobile power source according to claim 22, wherein the mobile power source further comprises a communication interface connected to the control module, and is configured to contact and form a contact type with a communication interface provided on a charging module where the mobile power source is located. Data transmission mode; the control module controls the contact communication device of the mobile power source to transmit data to the charging module; the mobile power source is configured to coexist or select the contactless data transmission mode and the contact data transmission mode Applicable methods to transfer data between the mobile power supply and the charging module where it is located;

The data transmitted in the contact data transmission mode and / or the contactless data transmission mode include instructions and / or mobile power information; the control module of the mobile power executes the received instructions, and / or transmits the execution instructions to the control module of the charging module. And / or transmitting mobile power information to the control module of the charging module.
The mobile power source according to claim 23, wherein the mobile power source information transmitted in the contact data transmission mode and / or the contactless data transmission mode includes one of identity information, version number, and mobile power status information of the mobile power source. One or more; one of the power bank status information transmitted includes one of power bank power, power supply temperature, charging current, number of uses, power bank power output function switch state, mobile power bank failure information, and mobile power unit working state information Or several; contactless data transmission mode and contact data transmission mode transmit the same data;

The mobile power information is stored in a mobile power control module, and the mobile power control module transmits mobile power information to the non-contact communication device and / or communication interface of the mobile power, and the non-contact type of the charging module where the mobile power is located. The communication device and / or the communication interface are correspondingly received and transmitted to the control module of the charging module.
The mobile power source according to claim 23, wherein the communication interface and / or charging interface of the mobile power source is a contact interface, and the contact interface includes a thimble, a Type-C interface, a Micro USB interface, and a contact One or more of the following: an interface, a Lightning interface, or a DC interface; the control module is set on a single-chip computer or a control circuit board of a mobile power supply.
The mobile power source according to claim 25, wherein the interface of the mobile power source is a contact, the interface of the charging module includes a charging thimble and / or a communication thimble, and the contact of the mobile power source is realized by contacting the charging thimble of the charging module. The charging module charges the mobile power source, and the contacts of the mobile power source and the communication thimble of the charging module are in contact to form a thimble contact-type contact data transmission mode; the contacts are two or more.
The mobile power source according to claim 23, wherein the non-contact communication device and / or the communication interface is disposed at a position of the mobile power source so that the mobile power source faces upward with any of its front and back sides, and / or Either the front or the back end is inserted into the hopper of the corresponding charging module, and the contactless data transmission mode of the mobile power source and the contactless communication device of the charging module form the contactless data transmission mode, and / or, A contact data transmission mode is formed between the communication interface of the mobile power source and the communication interface of the charging module.
The mobile power source according to claim 21, wherein the position where the non-contact communication device is arranged on the mobile power source comprises:

The mobile power source includes two non-contact communication devices symmetrically disposed on one or both sides of the opposite sides of the mobile power source, or on one or both sides of the opposite two sides, or on one or both sides of the opposite ends. The adapted charging module includes There is a non-contact communication device set on either side, or on either side, or the corresponding position of either end of the charging module silo; or

The mobile power supply includes a non-contact communication device which is disposed at a non-center position on either side of the opposite sides of the mobile power supply, or on either side of the opposite two sides, or on either end of the opposite ends. The adapted charging module includes two The non-contact communication device is symmetrically disposed on one or both sides of the opposite sides of the charging module silo, or symmetrically disposed on one or both sides of the opposite two sides, or symmetrically disposed on one end or two opposite ends of the opposite ends; or

The mobile power supply includes a non-contact communication device disposed on the center point of either of the two sides of the mobile power supply, or on either of the two opposite sides, or on the center of either end of the two opposite ends. The adapted charging module includes a non-contact The contact-type communication device is disposed at the center point of any side, or surface, or at either end of the charging module silo.
The mobile power source according to any one of claims 21 to 28, wherein the non-contact communication device is an RFID communication device, and the RFID communication device of the mobile power is used for transmission with the charging module RFID communication device. data.
The mobile power source according to any one of claims 21 to 28, wherein the non-contact communication device is an infrared communication device; the infrared communication device of the mobile power includes an infrared transmitting module for communicating with the mobile power source. The infrared communication device of the charging module transmits data to and from the receiving module; the infrared communication device of the mobile power supply further includes an infrared receiving module for transmitting data to and from the infrared transmitting module of the infrared communication device of the charging module.