TWM610572U - System powered by mobile device to unlock intelligent parcel locker - Google Patents

Abstract

A system that uses a mobile device to supply power and unlock the smart locker, select the smart locker to be used through the server, and execute the encryption algorithm to generate the first verification code based on the counter identification code of the selected smart locker, and the A verification code is sent to the user’s mobile device. When the power supply or mobile device supplies power to the selected smart cabinet, the smart cabinet executes the same encryption algorithm to generate a second verification code based on its own counter identification code. And when the first verification code is the same as the second verification code, the electronic lock is controlled to be in an unlocked state, so as to achieve the technical effect of improving the usability of the smart cabinet and the convenience of setting.

Description

Power on your mobile device and unlock the smart locker system

This creation relates to a system for opening the smart locker, especially a system that uses a mobile device to supply power and unlock the smart locker.

In recent years, with the popularization and vigorous development of the logistics industry, how to conveniently send and receive goods has become one of the problems that manufacturers urgently want to solve. In order to solve this problem, various electronic lockers have sprung up.

Generally speaking, traditional electronic lockers need to be installed in locations that can provide power, such as gas stations, MRT stations, convenience stores, and so on. However, not all locations can provide power, and not all locations that can provide power are willing to provide power, so the installation location is very limited. In addition, even if the power supply can be provided, how to share the electricity bill is another annoying problem, so there is the problem of the usability and installation convenience of the electronic locker.

In view of this, some manufacturers have proposed a technical method for an electronic locker equipped with a battery, which provides the power required for the electronic locker through the battery. However, this method still requires regular battery replacement or charging to ensure the power supply of the electronic locker. Therefore, it still cannot effectively solve the problems of the usability and installation convenience of the electronic locker.

To sum up, it can be seen that the prior art has always had the problem of poor usability and installation convenience of the electronic locker for a long time. Therefore, it is necessary to propose improved technical means to solve this problem.

This creation reveals a system that uses mobile devices to power and unlock smart lockers.

First of all, this creation discloses a system that uses a mobile device to power and unlock the smart locker. This system includes: the smart locker and the server. In the part of the smart take cabinet, each smart take cabinet is equipped with the same encryption algorithm, and has a counter identification code, a connection port and an electronic lock. This electronic lock will automatically become a locked state when the power is turned off. The cabinets all include: connection module, generation module, control module and reset module. Wherein, the connection module is used for when the power supply device or the mobile device is electrically connected to the connection port through the connection line, the power supply device or the mobile device supplies power to the smart cabinet through the connection line; the generation module is electrically connected to the connection The module is used to execute the encryption algorithm to calculate the second parameter message to generate the corresponding second verification code after the smart cabinet gets the power, and store the generated second verification code in the Volatile Memory (Volatile Memory). ), where the second parameter message includes the counter identification code of the smart cabinet itself; the control module is electrically connected to the generating module for receiving the first verification code from the mobile device for comparison with the second verification code. When the comparison matches, a control signal is generated to control the electronic lock from the locked state to the unlocked state; and the reset module is electrically connected to the connection module for after the mobile device and the smart cabinet are disconnected from the electrical connection, The second verification code stored in the volatile memory is disappeared, and the electronic lock is automatically turned into a locked state. At the same time, the mobile device automatically deletes the received first verification code when it detects that the electrical connection is interrupted.

Then, in the part of the server, the same encryption algorithm as the smart locker is set. This server includes: a recording module, a selection module, and an execution module. Among them, the recording module is used to record user information; the selection module is connected to the recording module to select one of the smart lockers to notify the user of the operation according to the user information, and to record the selected smart Take the counter identification code of the counter; and the execution module connection selection module, which is used to execute the encryption algorithm to calculate the first parameter message to generate the corresponding first verification code, and then generate the first verification based on the user message The code is sent to the user’s mobile device, where the first parameter message includes the counter identification code of the selected smart counter.

In addition, this creation also discloses a system that uses a mobile device to power and unlock the smart cabinet. This system includes: the smart cabinet and a server. In the smart cabinets, each smart cabinet is equipped with the same encryption algorithm, and has a non-volatile memory (Non-Volatile Memory, NVM), a port and an electronic lock. The non-volatile memory stores The counter identification code and the previous user identification code of the smart access cabinet, and the electronic lock will automatically become locked when the power is cut off. Each smart access cabinet includes: a connection module, a generation module, and a control module. Wherein, the connection module is used for when the power supply device or the mobile device is electrically connected to the connection port through the connection line, the power supply device or the mobile device supplies power to the smart cabinet through the connection line; the generation module is electrically connected to the connection The module is used to load its own counter ID and the previous user ID from the non-volatile memory after the smart counter receives power, and execute the encryption algorithm to verify the loaded counter The identification code and the previous user identification code are operated to generate the corresponding second verification code; and the control module is electrically connected to the generating module for receiving the first verification code from the mobile device for comparison with the second verification code, When the comparison matches, a control signal is generated to control the electronic lock from the locked state to the unlocked state, and after the mobile device and the smart cabinet are disconnected from the electrical connection, the electronic lock is automatically turned into the locked state. As for the server, the encryption algorithm is the same as that of the smart locker. This server includes: a recording module, a selection module, and an execution module. Among them, the recording module is used to record user information and the previous user identification code of each smart access cabinet; the selection module is connected to the recording module to select one of the smart access cabinets according to the user information 1. Record the counter identification code of the selected smart counter; and the execution module connection selection module, which is used to execute the encryption algorithm to perform the counter identification code of the selected smart counter and the previous user ID The calculation generates the corresponding first verification code, and then transmits the generated first verification code to the user's mobile device according to the user's message.

The system disclosed in this creation is as above. The difference from the previous technology is that this creation uses the server to select the smart locker to be used, and executes an encryption algorithm to generate the first verification code based on the counter ID code of the selected smart locker , And send the first verification code to the user’s mobile device. When the power supply or mobile device supplies power to the selected smart cabinet, the smart cabinet executes the same encryption algorithm to generate the first verification code based on its own counter identification code. Two verification codes, and when the first verification code is the same as the second verification code, the electronic lock is controlled to be in an unlocked state.

Through the above-mentioned technical means, this creation can achieve the technical effect of improving the usability and installation convenience of the smart cabinet.

The following will describe the implementation of this creation in detail with the drawings and embodiments, so as to fully understand and implement the implementation process of how this creation uses technical means to solve technical problems and achieve technical effects.

First of all, before explaining the system that uses mobile devices to power and unlock the smart locker disclosed in this creation, first explain the terms defined by this creation. The "smart locker" mentioned in this creation refers to the smart locker In addition to being powered by connected power devices, such as mobile power, solar batteries or alkaline batteries, it can also be powered by mobile devices (such as smart phones, tablets, etc.) without a power source. Etc.) When it is electrically connected to the smart cabinet through a cable, the mobile device provides the power required by the smart cabinet, and even with a power device, the mobile device is still allowed to supply power, for example: when the power supply of the power device When insufficient, mobile devices are allowed to supply power. When the smart cabinet obtains power from a power supply device or a mobile device, it automatically executes the encryption algorithm set therein and controls the electronic lock, which will be described in detail later in conjunction with embodiments and drawings.

The following diagrams are used to further explain the system of this creation that uses a mobile device to power and unlock the smart cabinet. Please refer to "Figure 1A" first. "Figure 1A" is the creation of the system that uses a mobile device to power and unlock the smart cabinet. System block diagram, this system includes: smart counter 110 and server 120. In the part of the smart cabinet 110, each smart cabinet 110 is equipped with the same encryption algorithm, and has a counter identification code, a connection port and an electronic lock. This electronic lock will automatically become a locked state when the power is turned off. The smart cabinet 110 includes: a connection module 111, a generation module 112, a control module 113, and a reset module 114. Wherein, the connection module 111 is used for when a power supply device (such as a mobile power supply, alkaline battery, solar battery, etc.) or a mobile device 131 is electrically connected to a connection port through a cable, the power supply device or the mobile device 131 passes therethrough The connecting line supplies power to the smart cabinet 110. In actual implementation, the ports and cables can be ports (ie, USB OTG) and cables that comply with the supplementary standard (On-The-Go, OTG) of the Universal Serial Bus (USB) , Which allows devices that support OTG to change from a USB peripheral device to a USB host, and can have the capability of reverse power supply, that is, mobile devices that support OTG provide power to smart cabinets that support OTG. In addition, the ports and cables can also be other ports and cables with reverse power supply and data transmission capabilities, or simple power ports and power cables. In particular, the encryption algorithm may include encryption, encoding, or a combination of operations, and can be updated by the server 120, so that the smart cabinet 110 and the server 120 maintain the same encryption algorithm. In addition, the counter identification code is a unique string of characters, numbers, symbols, or combinations thereof.

The generating module 112 is electrically connected to the connection module 111, and is used to execute an encryption algorithm to perform an operation on the second parameter message to generate a corresponding second verification code after the smart cabinet 110 obtains power, and the generated second verification code is generated The second verification code is stored in the volatile memory, where the second parameter message includes the counter identification code of the smart counter. In actual implementation, the second parameter message may not only include the counter ID of the smart counter 110 itself, but also the user ID, so that the counter ID and user can be identified at the same time when the encryption algorithm is executed. The code is encrypted or encoded to generate a second verification code. Then, the second parameter message may further include a time stamp message, so that when the smart counter 110 executes the encryption algorithm, the counter identification code, user identification code and time stamp message are encrypted or encoded at the same time to generate the second verification code .

The control module 113 is electrically connected to the generation module 112 for receiving the first verification code from the mobile device 131 for comparison with the second verification code, and when the comparison matches, it generates a control signal to control the electronic lock from the locked state It becomes the unlocked state. For example, suppose that the first verification code is "AF01#@E" and the second verification code is also "AF01#@E", and a control signal is generated at this time. In actual implementation, the mobile device 131 can transmit data through the use of WiFi, ZigBee, CoAP (Constrained Application Protocol), MQTT (Message Queuing Telemetry Transport) or similar wireless transmission technologies in addition to transmission through a connection line.

The reset module 114 is electrically connected to the connection module 111, and is used to enable the storage in a volatile memory (such as random access memory) after the mobile device 131 and the smart cabinet 110 are disconnected from the electrical connection The second verification code disappears and the electronic lock is automatically locked. At the same time, the mobile device 131 automatically deletes the received first verification code when it detects that the electrical connection is interrupted. In actual implementation, due to the electrical characteristics of the volatile memory, when the power supply is interrupted, the stored data will automatically disappear. In addition, the electronic lock is allowed to be controlled to a locked state or an unlocked state when it is powered on, and cannot be controlled when it is not powered on and is automatically maintained in the locked state.

Then, in the server 120, the same encryption algorithm as that of the smart cabinet 110 is set. The server 120 includes a recording module 121, a selection module 122, and an execution module 123. Among them, the recording module 121 is used to record user information, such as the shipping information of the sender and the receiving information of the receiver. In actual implementation, the server 120 can also record the previous user identification code of each smart locker 110, and when the server 120 executes the encryption algorithm, the previous user of the selected smart locker 110 The identification code is embedded in the first parameter message, so that the encryption algorithm generates the corresponding first verification code according to the first parameter message. This previous user identification code will be provided to the smart locker 110 via the mobile device and stored in a non-volatile memory (such as flash memory), so that the smart locker 110 will store the previous one when the encryption algorithm is executed. The user identification code is embedded in the second parameter message, and then the encryption algorithm generates a corresponding second verification code according to the second parameter message.

The selection module 122 is connected to the recording module 121 to select one of the smart lockers to notify the user of operations (such as sending, receiving, returning, etc.) based on user information, and recording The counter identification code of the selected smart counter 110. For example, assuming that the user message includes the sender’s address, the selection module 122 can select the smart counter 110 in the same area or a closer distance according to the sender’s address, and then record the selected smart counter 110. Digit identification code; assuming that the user’s message contains both the sender’s and receiver’s addresses, the smart counter 110 located in the middle of the two locations can be selected. In fact, the server 120 can determine whether the smart counter 110 is in use according to whether the counter identification code is recorded.

The execution module 123 is connected to the selection module 122 to execute an encryption algorithm to calculate the first parameter message to generate a corresponding first verification code, and then send the generated first verification code to the user according to the user message In the device 131, the first parameter message includes the counter identification code of the selected smart counter 110. In actual implementation, the first parameter message may not only include the counter identification code of the selected smart counter 110, but also the user identification code, so that when the encryption algorithm is executed, the counter identification code and the user The identification code is encrypted or encoded to generate a first verification code. Then, the first parameter message may further include a time stamp message, so that when the server 120 executes the encryption algorithm, the counter identification code, the user identification code and the time stamp message are encrypted or encoded at the same time to generate the first verification code.

Next, as shown in "Picture 1B", "Picture 1B" is another system block diagram created to power the mobile device and unlock the smart cabinet. This system includes: smart cabinet 150 and server 160 . In the part of the smart cabinet 150, each smart cabinet 150 is equipped with the same encryption algorithm, and has a non-volatile memory, a connection port and an electronic lock. The non-volatile memory stores the cabinet of the smart cabinet 150. The bit identification code and the previous user identification code, and the electronic lock will automatically become locked when the power is cut off. Each smart locker 150 includes: a connection module 151, a generation module 152, and a control module 153. Wherein, the connection module 151 is used for when the power supply device (such as: mobile power supply, alkaline battery, solar battery, etc.) or the mobile device 171 is electrically connected to the connection port through the cable, the power supply device or the mobile device 171 passes therethrough. The connecting line supplies power to the smart cabinet 150. In actual implementation, the connection module 151 is the same as the connection module 111 shown in "Figure 1A". Both can realize reverse power supply and data transmission through USB OTG, such as: transmitting the first verification code and transmitting the user The identification code uses the non-volatile memory stored in the smart locker 150 as the previous user identification code.

The generating module 152 is electrically connected to the connection module 151, so that after the smart cabinet 150 obtains power, the smart cabinet 150 loads its own counter ID and the previous user ID from the non-volatile memory. , And execute an encryption algorithm to perform operations on the loaded counter identification code and the previous user identification code to generate the corresponding second verification code. The difference between this generating module 152 and the generating module 112 shown in "Figure 1A" is that the generating module 152 must at least generate the second verification code based on its own counter ID and the previous user ID.

The control module 153 is electrically connected to the generation module 152 for receiving the first verification code from the mobile device 171 for comparison with the second verification code, and when the comparison matches, it generates a control signal to control the electronic lock from the locked state It becomes the unlocked state, and after the mobile device 171 and the smart cabinet 150 are disconnected from the electrical connection, the electronic lock is automatically turned into the locked state. In actual implementation, the control module 153 is the same as the control module 113 in "Figure 1A".

Then, in the part of the server 160, the same encryption algorithm as the smart locker 150 is set. The server 160 includes a recording module 161, a selection module 162, and an execution module 163. The recording module 161 is used to record user information and the previous user identification code of each smart locker 150. For example, the user ID of the user who wants to use the smart locker 150 can be recorded in the user message, and after the smart locker 150 is used, this user ID is recorded as the previous user ID of the corresponding smart locker 150 code.

The selection module 162 is connected to the recording module 161 to select one of the smart lockers 150 according to user information, and record the counter identification code of the selected smart locker 150. For example, suppose there are three smart counters 150, and the counter identification codes of the first smart counter 150 to the third smart counter 150 are "A001", "A002" and "A003" respectively. When you select When the module 162 selects the second smart counter 150, it will record the counter identification code "A002" for subsequent generation of the first verification code.

The execution module 163 is connected to the selection module 162 to execute an encryption algorithm to calculate the counter ID of the selected smart counter 150 and the previous user ID to generate the corresponding first verification code, and then according to the user The message sends the generated first verification code to the mobile device 171 of the user. In this way, the user can hold the mobile device 171 to the smart cabinet 150 selected by the server 160, electrically connect the mobile device 171 to this smart cabinet 150, and the smart cabinet 150 is powered by the mobile device, and the The first verification code received from the server 160 is sent to the smart locker 150, and the smart locker 150 is provided to compare it with the second verification code generated by itself to control the electronic lock.

In particular, it should be noted that, in actual implementation, the modules described in this creation can be implemented in various ways, including software, hardware, or any combination thereof. For example, in some implementations, each module can be implemented Software and hardware or one of them. In addition, this creation can also be implemented partially or completely based on hardware. For example, one or more modules in the system can be implemented through integrated circuit chips, system Single chip (System on Chip, SoC), complex programmable logic device (Complex Programmable Logic Device, CPLD), field programmable logic gate array (Field Programmable Gate Array, FPGA), etc. to achieve. This creation can be a system and/or computer program. The computer program may include a computer-readable storage medium loaded with computer-readable program instructions for enabling the processor to implement various aspects of the creation. The computer-readable storage medium may be tangible that can hold and store instructions used by the instruction execution device. equipment. The computer-readable storage medium can be, but is not limited to, an electrical storage device, a magnetic storage device, an optical storage device, an electromagnetic storage device, a semiconductor storage device, or any suitable combination of the foregoing. More specific examples (non-exhaustive list) of computer-readable storage media include hard disks, random access memory, read-only memory, flash memory, optical disks, floppy disks, and any suitable combination of the foregoing. The computer-readable storage medium used herein is not interpreted as the instantaneous signal itself, such as radio waves or other freely propagating electromagnetic waves, electromagnetic waves propagating through waveguides or other transmission media (for example, optical signals through fiber optic cables), or through wires Transmission of electrical signals. In addition, the computer-readable program instructions described herein can be downloaded from a computer-readable storage medium to various computing/processing devices, or downloaded via a network, such as the Internet, a local area network, a wide area network, and/or a wireless network. To an external computer device or external storage device. The network may include copper transmission cables, optical fiber transmission, wireless transmission, routers, firewalls, switches, hubs and/or gateways. The network card or network interface in each computing/processing device receives computer-readable program instructions from the network, and forwards the computer-readable program instructions for storage in the computer-readable storage medium in each computing/processing device in. The computer program instructions that perform this creative operation can be assembly language instructions, instruction set architecture instructions, machine instructions, machine-related instructions, micro instructions, firmware instructions, or source code or object code written in any combination of one or more programming languages (Object Code), the programming language includes object-oriented programming languages, such as: Common Lisp, Python, C++, Objective-C, Smalltalk, Delphi, Java, Swift, C#, Perl, Ruby and PHP, etc., as well as conventional programs Procedural programming language, such as C language or similar programming language. The computer program instructions may be executed entirely on the computer, partly executed on the computer, executed as an independent software, partly executed on the client computer and partly executed on the remote computer, or entirely on the remote computer or server Executed on.

Please refer to "Picture 2A" and "Picture 2B", "Picture 2A" and "Picture 2B" are the flow chart of the method of creating power with mobile device and unlocking the smart locker. The steps include: Provide settings The server 120 and smart cabinet 110 with the same encryption algorithm. The server 120 records user information. Each smart cabinet 110 has a counter identification code, a connection port, and an electronic lock. The electronic lock is in the event of a power failure. It is automatically locked (step 211); the server 120 selects one of the smart lockers 110 according to the user's message to notify the user to proceed, and records the counter identification code of the selected smart locker 110, and Execute an encryption algorithm to calculate the first parameter message to generate a corresponding first verification code, and then send the generated first verification code to the user’s mobile device 131 according to the user message, where the first parameter message contains the selected The counter identification code of the smart cabinet 110 (step 212); when the power device or mobile device 131 is electrically connected to the port of the smart cabinet 110 selected by the server 120 through a cable, the power device or mobile device 131 passes The connection line supplies power to the smart cabinet 110 (step 213); when the smart cabinet 110 obtains power, an encryption algorithm is executed to calculate the second parameter message to generate a corresponding second verification code, and the generated second verification code is generated The code is stored in the volatile memory, and the first verification code is received from the mobile device 131 for comparison with the second verification code. When the comparison matches, a control signal is generated to control the electronic lock from the locked state to the unlocked state. , The second parameter message includes the counter identification code of the smart cabinet 110 (step 214); and when the mobile device 131 and the smart cabinet 110 are disconnected from the electrical connection, the second verification code stored in the volatile memory Disappear, and the electronic lock is automatically turned into a locked state, and the mobile device 131 automatically deletes the received first verification code when it detects that the electrical connection is interrupted (step 215). Through the above steps, the smart counter 110 to be used can be selected through the server 120, and the encryption algorithm is executed to generate the first verification code according to the counter identification code of the selected smart counter, and the first verification code is sent to The user’s mobile device, when the power supply device or the mobile device supplies power to the selected smart cabinet 110, the smart cabinet 110 executes the same encryption algorithm to generate the second verification code according to its own counter identification code, and in the first When the first verification code is the same as the second verification code, the electronic lock is controlled to be in an unlocked state.

As shown in "Picture 2C" and "Picture 2D", "Picture 2C" and "Picture 2D" are a flowchart of another method for creating a method for powering a mobile device and unlocking the smart locker. The steps include : Provide a server 160 and smart cabinet 150 with the same encryption algorithm. The server 160 records user information and the previous user ID of each smart cabinet 150. Each smart cabinet 150 has Non-volatile memory, port and electronic lock. This non-volatile memory stores the counter ID of the smart cabinet 150 and the previous user ID, and the electronic lock will automatically become locked when the power is off (step 221); the server 160 selects one of the smart counters 150 according to the user information, and records the counter identification code of the selected smart counter 150, and executes an encryption algorithm to verify the selected smart counter 150 The counter ID of 150 and the previous user ID are calculated to generate the corresponding first verification code, and then the generated first verification code is sent to the user’s mobile device 171 according to the user’s message (step 222); When the device or mobile device 171 is electrically connected to the port of the smart cabinet 150 selected by the server 160 through a cable, the power device or mobile device 171 supplies power to the smart cabinet 150 through the cable (step 223); After the counter 150 receives power, the smart counter 150 loads its own counter ID and previous user ID from non-volatile memory, and executes an encryption algorithm to verify the loaded counter ID and previous user ID. The user identification code is operated to generate a corresponding second verification code, and the first verification code is received from the mobile device 171 for comparison with the second verification code, and when the comparison matches, a control signal is generated to control the electronic lock from being locked The state becomes the unlocked state (step 224); when the mobile device 171 and the smart cabinet 150 are disconnected from the electrical connection, the electronic lock automatically becomes the locked state (step 225).

The following descriptions will be given in the form of an embodiment in conjunction with "Figure 3" to "Figure 6B". Please refer to "Figure 3" first. "Figure 3" generates the first verification code and the second verification code for the application of this creation. Schematic diagram of the first embodiment. In actual implementation, the first verification code is generated by the server 120 executing the encryption algorithm 300, which is mainly encrypted or encoded according to the counter identification code of the smart counter 110 selected by the server 120, or both encryption and Generated by operations such as encoding; the second verification code is generated in the same way by the smart cabinet 110 executing the same encryption algorithm 300, which is mainly encrypted or encoded according to the counter identification code of the smart cabinet 110, or It is generated by operations such as encryption and encoding at the same time. Assuming that the encryption algorithm 300 is performing an encryption operation, the verification codes generated by the server 120 and the smart counter 110 are all generated by an encryption operation; if the encryption algorithm 300 is performing both encryption and encoding operations, the server 120 and The verification codes generated by the smart counter 110 are all generated through encryption and encoding operations. The encryption may use symmetric encryption or asymmetric encryption, and the encoding may use Secure Hash Algorithm (SHA), Message-Digest Algorithm 5 (MD5), etc. Wait for it to happen.

As shown in "Figure 4", "Figure 4" is a schematic diagram of the second embodiment of applying this creation to generate the first verification code and the second verification code. Compared with the above-mentioned first embodiment, in the second embodiment, the server 120 not only brings the counter identification code of the selected smart counter 110 into the encryption algorithm 300 to perform calculations, but also brings the user into the same time. The identification code or the previous user identification code of the smart locker 110 is used to calculate the first verification code. Similarly, in addition to bringing the counter ID of the smart counter 110 into the encryption algorithm 300 to perform calculations, the smart counter 110 also brings in the user ID or this smart code in the same manner as the server 120. The previous user identification code of the counter 110 is taken for calculation to calculate the second verification code. For example, if the server 120 also brings in the user ID, the smart locker 110 will also bring the user ID in the same way; if the server 120 also brings the previous user ID, then the smart The drawer 110 will also bring the previous user identification code in the same way at the same time. In this way, the smart locker 110 can control the electronic lock according to whether the first verification code and the second verification code are the same. For example, when the two are the same, the electronic lock is controlled to be in the unlocked state; otherwise, the electronic lock is maintained in the locked state. .

As shown in "Figure 5", "Figure 5" is a schematic diagram of a third embodiment of applying this creation to generate the first verification code and the second verification code. Different from the foregoing second embodiment, in the third embodiment, the data brought in by the execution of the encryption algorithm 300 is further added with a time stamp message, and the server 120 can set the generated first verification code by the time stamp message time. Similarly, the smart locker 110 can also set the time of the second verification code generated by the time stamp message, and further compare whether the time difference between the two time stamp messages exceeds the preset range, assuming it exceeds the preset range, Even if the first verification code is the same as the second verification code, the electronic lock is still disabled to maintain it in the locked state. In actual implementation, the time stamp information of the smart locker 110 is generated by the time received from the mobile device 131 electrically connected to it.

As shown in "Picture 6A" and "Picture 6B", "Picture 6A" and "Picture 6B" are schematic diagrams of applying this creation to send and pick up goods. First, when the buyer and seller complete the transaction, the server 120 will record user information, such as: the sender's (ie: seller) delivery information and the receiver's (ie: buyer) delivery information, such as address, Telephone, email, etc., that is to say, both the buyer and the seller are regarded as users. Then, the server 120 selects the smart counter 110 according to the user information, for example, selects the smart counter 110 closer to the seller, closer to the buyer, or between the buyer and the seller. And record the counter identification code of the smart counter 110, and execute an encryption algorithm to calculate the corresponding first verification code based on the counter identification code, and then transmit the first verification code to the user's mobile device, for example ：Send to the first mobile device 610 of the sender and the second mobile device 620 of the receiver respectively. At this time, as shown in "Figure 6A", a notification message 612 can be displayed on the screen 611 of the first mobile device 610 (for example, "the first verification code has been obtained" is displayed in text). Similarly, in the second operation The screen 621 of the device 620 displays a notification message 622 (for example, "the first verification code has been obtained" is displayed in text). Next, as shown in "Figure 6B", suppose the sender receives the server 120 instructing to send the goods to the designated smart counter 110, the sender can electrically connect the mobile device 700 through the cable 720 (in The sender can be regarded as the first mobile device 610) and the designated smart locker 750. At this time, the mobile device 700 provides the power required by the smart cabinet 750. When the smart cabinet 750 receives power, it will automatically execute an encryption algorithm to generate a second verification code based on its own counter identification code. Next, the sender can click the unlock button 711 on the screen 710 to send the first verification code received from the server 120 to the smart counter 750, so that the smart counter 750 compares the first verification code with the second verification code. When the comparison matches, a control signal is generated to control the electronic lock 751 from the locked state to the unlocked state, so as to place items.

Similarly, assuming that the mobile device 700 is held by the consignee, the mobile device 700 (which can be regarded as the second mobile device 620 on the consignee) and the designated smart locker 750 can also be electrically connected through the connection line 720. At this time, the mobile device 700 also provides the power required by the smart cabinet 750, and automatically executes the encryption algorithm to generate the second verification code according to its own counter identification code, and according to the ratio of the first verification code to the second verification code Control the electronic lock 751 on the result. For example, when the first verification code is the same as the second verification code, the electronic lock 751 is controlled to be in an unlocked state to facilitate the receiver to pick up the goods. At this point, the process of sending and picking up the goods is completed. In particular, in one embodiment, when the mobile device 700 is disconnected from the smart cabinet 750, the second verification code stored in the volatile memory can be disappeared, and the electronic lock can automatically become the upper At the same time, the mobile device 700 automatically deletes the first verification code received from the server 120 when it detects that the electrical connection is interrupted. In another embodiment, the mobile device 700 sends the user identification code to the smart locker 750, so that the smart locker 750 stores the user identification code from the mobile device 700 in the non-volatile memory as the previous user identification When the electrical connection between the mobile device 700 and the smart cabinet 750 is interrupted, only the electronic lock is automatically turned into a locked state, and the second verification code does not need to disappear.

To sum up, it can be seen that the difference between this creation and the previous technology is that the smart locker to be used is selected through the server, and the encryption algorithm is executed to generate the first verification code according to the counter identification code of the selected smart locker. And send the first verification code to the user’s mobile device. When the power supply or mobile device supplies power to the selected smart cabinet, the smart cabinet executes the same encryption algorithm to generate the second code based on its own counter identification code. Verification code, and when the first verification code is the same as the second verification code, the electronic lock is controlled to be in an unlocked state. This technical means can solve the problems of the previous technology, thereby achieving the improvement of the usability of the smart cabinet and the convenience of setting The technical effect of sex.

Although this creation is disclosed in the foregoing embodiment, it is not intended to limit this creation. Anyone familiar with similar art can make some changes and modifications without departing from the spirit and scope of this creation. Therefore, this creation The scope of patent protection shall be determined by the scope of the patent application attached to this specification.

110,150: Outsmart cabinet 111, 151: connection module 112, 152: Generate modules 113,153: control module 114: reset module 120, 160: server 121,161: Recording module 122,162: select modules 123,163: Execution module 131,171: mobile devices 300: encryption algorithm 610: First Mobile Device 611,621,710: screen 612,622: Notification message 620: Second Mobile Device 700: mobile device 711: Unlock button 720: connection line 750: Outsmart Cabinet 751: Electronic Lock Step 211: Provide a server and multiple smart lockers with the same encryption algorithm, where the server records a user message, and each smart locker has a counter ID, a connection port, and An electronic lock, which automatically becomes a locked state when the power is cut off Step 212: The server selects one of the smart lockers according to the user message to notify the user to proceed, and records the counter ID of the selected smart locker, and executes the encryption algorithm The method calculates a first parameter message to generate a corresponding first verification code, and then transmits the generated first verification code to a mobile device of the user according to the user message, wherein the first parameter message includes The counter identification code of the selected smart counter Step 213: When a power device or the mobile device is electrically connected to the port of the smart cabinet selected by the server through a cable, the power device or the mobile device is the smart cabinet through the cable Cabinet power supply Step 214: After the smart cabinet gets power, execute the encryption algorithm to calculate a second parameter message to generate a corresponding second verification code, and store the generated second verification code in a volatile memory Body, and receiving the first verification code from the mobile device for comparison with the second verification code, and when the comparison matches, a control signal is generated to control the electronic lock from a locked state to an unlocked state, wherein , The second parameter message contains the counter identification code of the smart counter itself Step 215: When the mobile device is disconnected from the smart cabinet, the second verification code stored in the volatile memory disappears, and the electronic lock is automatically brought into the locked state, and at the same time, the action When the device detects that the electrical connection is interrupted, it automatically deletes the received first verification code Step 221: Provide a server and multiple smart lockers with the same encryption algorithm, where the server records a user message and a previous user ID of each smart locker, and each smart locker Each of the pick-up cabinets has a non-volatile memory, a connection port and an electronic lock. The non-volatile memory stores a counter identification code and the previous user identification code of the smart pick-up cabinet, and the electronic lock is Automatically become a locked state when the power is off Step 222: The server selects one of the smart lockers according to the user information, records the counter identification code of the selected smart locker, and executes the encryption algorithm to verify the selected smart locker. The counter identification code of the smart counter and the previous user identification code are calculated to generate a corresponding first verification code, and then the generated first verification code is sent to a mobile device of the user according to the user message Step 223: When a power device or the mobile device is electrically connected to the port of the smart cabinet selected by the server through a cable, the power device or the mobile device is the smart device through the cable Cabinet power supply Step 224: After the smart cabinet gets power, the smart cabinet loads its counter ID and the previous user ID from the non-volatile memory, and executes the encryption algorithm to load The counter identification code and the previous user identification code are calculated to generate a corresponding second verification code, and the first verification code is received from the mobile device for comparison with the second verification code. When they match, a control signal is generated to control the electronic lock from a locked state to an unlocked state Step 225: When the electrical connection between the mobile device and the smart cabinet is interrupted, the electronic lock automatically becomes the locked state

Figure 1A is a block diagram of the system created to power the mobile device and unlock the smart locker. Figure 1B is a block diagram of another system created to power the mobile device and unlock the smart locker. Figure 2A and Figure 2B are the flowcharts of the method for creating the method of powering the mobile device and unlocking the smart locker. Figure 2C and Figure 2D are flowcharts of another method for creating a method of using a mobile device to power and unlock the smart locker. Figure 3 is a schematic diagram of the first embodiment of applying this creation to generate the first verification code and the second verification code. Figure 4 is a schematic diagram of a second embodiment of applying this creation to generate the first verification code and the second verification code. Figure 5 is a schematic diagram of a third embodiment of applying this creation to generate the first verification code and the second verification code. Figure 6A and Figure 6B are schematic diagrams of sending and picking up goods using this creation.

110: Outsmart Cabinet

111: connection module

112: Generate Module

113: Control Module

114: reset module

120: server

121: record module

122: select module

123: Execution module

131: mobile device

Claims (8)

A system that uses a mobile device to supply power and unlock the smart cabinet. The system includes: There are multiple smart access cabinets, each of which is equipped with the same encryption algorithm, and has a counter identification code, a connection port and an electronic lock. The electronic lock will automatically become a locked state when the power is cut off. Each smart locker contains: A connection module for when a power supply device or a mobile device is electrically connected to the port through a connection line, the power supply device or the mobile device supplies power to the smart cabinet through the connection line; A generation module, electrically connected to the connection module, for executing the encryption algorithm to calculate a second parameter message to generate a corresponding second verification code after the smart cabinet obtains power, and The generated second verification code is stored in a volatile memory, wherein the second parameter message includes the counter identification code of the smart counter itself; A control module, electrically connected to the generating module, for receiving a first verification code from the mobile device for comparison with the second verification code, and when the comparison matches, a control signal is generated to control the electronic The lock changes from a locked state to an unlocked state; and A reset module, electrically connected to the connection module, used to make the second verification code stored in the volatile memory disappear after the mobile device and the smart cabinet are disconnected from the electrical connection, and to make The electronic lock automatically becomes the locked state, and the mobile device automatically deletes the received first verification code when it detects that the electrical connection is interrupted; and A server configured with the same encryption algorithm as the smart locker, and the server includes: A recording module for recording a user message; A selection module, connected to the recording module, for selecting one of the smart lockers according to the user's message to notify the user to proceed, and record the counter identification of the selected smart locker Code; and An execution module, connected to the selection module, for executing the encryption algorithm to calculate a first parameter message to generate the corresponding first verification code, and then generate the first verification code based on the user message The mobile device sent to the user, wherein the first parameter message includes the counter identification code of the selected smart counter. For example, request item 1 uses a mobile device to power and unlock the smart locker system, where the first parameter message and the second parameter message further include a user identification code, when the server and the smart locker execute the encryption algorithm During the method, the counter identification code and the user identification code are encrypted or encoded at the same time to generate the first verification code and the second verification code. For example, request 2 uses a mobile device to power and unlock the smart locker system, where the first parameter message and the second parameter message further include a time stamp message, when the server and the smart locker execute the encryption algorithm At the same time, the counter identification code, the user identification code and the time stamp message are encrypted or encoded to generate the first verification code and the second verification code. For example, if the request item 3 is powered by a mobile device and unlocks the system of the smart locker, whether the difference between the time stamp information of the first parameter message and the second parameter message of the smart locker exceeds a preset range, when When the preset range is exceeded, the electronic lock is disabled to maintain the locked state. A system that uses a mobile device to supply power and unlock the smart cabinet. The system includes: There are multiple smart access cabinets, each smart access cabinet is equipped with the same encryption algorithm, and has a non-volatile memory, a connection port and an electronic lock. The non-volatile memory stores one of the smart access cabinets. Counter identification code and a previous user identification code, and the electronic lock will automatically become a locked state when the power is cut off. Each smart counter includes: A connection module for when a power supply device or a mobile device is electrically connected to the port through a connection line, the power supply device or the mobile device supplies power to the smart cabinet through the connection line; A generating module, electrically connected to the connection module, for after the smart cabinet gets power, the smart cabinet loads its own counter identification code and the previous use from the non-volatile memory User identification code, and execute the encryption algorithm to perform operations on the loaded counter identification code and the previous user identification code to generate a corresponding second verification code; and A control module, electrically connected to the generating module, for receiving a first verification code from the mobile device for comparison with the second verification code, and when the comparison matches, a control signal is generated to control the electronic The lock changes from a locked state to an unlocked state, and after the mobile device is disconnected from the smart cabinet, the electronic lock is automatically brought into the locked state; and A server configured with the same encryption algorithm as the smart locker, and the server includes: A recording module for recording a user message and the previous user identification code of each smart locker; A selection module connected to the recording module for selecting one of the smart lockers according to the user information, and recording the counter identification code of the selected smart locker; and An execution module connected to the selection module for executing the encryption algorithm to perform operations on the counter ID and the previous user ID of the selected smart counter to generate the corresponding first verification code , And then send the generated first verification code to the mobile device of the user according to the user message. For example, request item 5 uses a mobile device to power and unlock the smart locker system, wherein the first parameter message and the second parameter message further include a user identification code, when the server and the smart locker execute the encryption algorithm During the method, the counter identification code and the user identification code are encrypted or encoded at the same time to generate the first verification code and the second verification code. For example, request item 6 uses a mobile device to power and unlock the smart locker system, where the first parameter message and the second parameter message further include a time stamp message, when the server and the smart locker execute the encryption algorithm At the same time, the counter identification code, the user identification code and the time stamp message are encrypted or encoded to generate the first verification code and the second verification code. For example, request 7 uses a mobile device to power and unlock the smart locker system, wherein the smart locker compares whether the difference between the time stamp information of the first parameter message and the second parameter message exceeds a preset range, when When the preset range is exceeded, the electronic lock is disabled to maintain the locked state.

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