TW202029702A - Dual-network dual-system mobile device - Google Patents

Abstract

A dual-network dual-system mobile device is providing in the invention. The mobile device comprises a mobile network module, a transfer station module, two computer modules, a switch module, a HMI and a case. The switch module based on a switching signal switches the HMI electronically to one of the two computer modules, so the HMI can be utilized to interact with the switching computer module. The transfer station module establishes two network channels which are isolated virtually from one to the other. These two virtual channels are connected via the mobile network module and Mobile Network toward two access points, so that one of the computer modules can be accessed externally via one of the two network channels. The other computer module can be accessed externally via the other network channel individually. The invention can improve convenience and ensure information security.

Description

Dual network dual system mobile device

The present invention relates to mobile devices, and particularly relates to dual-network dual-system mobile devices.

Based on the consideration of information security, general enterprises lease private network 31 (Private network) from mobile telecommunications providers, and conduct smart data communication through the private network. The aforementioned private network is completely isolated from the public network (such as the Internet) (that is, no networked device can connect to the private network from the public network), and can avoid attacks from the public network.

To meet the needs of remote office work, some companies rent private networks from mobile carriers to obtain access point information, so that employees’ mobile devices (such as mobile phones or tablets) can connect to the private network via the access point. Conduct smart data communications.

However, existing single-card mobile devices can only connect to one set of access points at the same time and can only connect to a single network. When employees' mobile devices are connected to a private network, they cannot connect to the public network at the same time, which causes inconvenience.

At present, another dual-sim dual-standby mobile device has been proposed. The aforementioned mobile device can simultaneously use two SIMs to connect two sets of APNs (for example, the access point of the Internet and the access point of the private network at the same time), and the public network and the private network can be connected at the same time.

However, mobile devices may be attacked when connected to the public network and be infected with Trojan horse programs, computer viruses or other malicious programs. This makes the infected mobile devices may contaminate other network equipment on the private network when they are connected to the private network (Such as infecting other network devices with the same malicious program).

In addition, the display screens of mobile devices (such as mobile phones, laptops, and tablets) cannot view information from two domains (such as the Internet and private networks) at the same time.

Therefore, the existing mobile devices have the above-mentioned problems, and more effective solutions are urgently needed.

The main purpose of the present invention is to provide a dual-network dual-system mobile device that can switch control between two independent computer modules, and can provide the aforementioned two computer modules through two independent virtual isolated network channels. Communication outside the group.

In one embodiment, a dual-network dual-system mobile device includes a mobile network module, a transfer station module, a first computer module, a second computer module, a switching module, a man-machine interface, and a housing. The mobile network module is used to connect to the mobile network. The transfer station module is electrically connected to the mobile network module. The transfer station module establishes a first network channel with the first access point via the mobile network module, and establishes a second access point via the mobile network module The second network channel, wherein the first network channel and the second network channel are virtually isolated from each other, and the first computer module is electrically connected to the transfer module. The second computer module is electrically connected to the transfer module. The switching module is electrically connected to the first computer module and the second computer module. The man-machine interface is electrically connected to the switching module. The shell at least partially covers the mobile network module, the transfer module, the first computer module, the second computer module, the switching module and the man-machine interface to provide protection. When the switching module receives the first switching signal, the switching man-machine interface is electrically connected to the first computer module so that the man-machine interface is used to interact with the first computer module, and upon receiving the second switching signal The time switch man-machine interface is electrically connected to the second computer module so that the man-machine interface is used to interact with the second computer module. The transfer station module is configured to enable the first computer module to communicate externally through the first network connection channel, and to enable the second computer module to communicate externally only through the second network channel.

In one embodiment, the first computer module includes a first main memory, a first storage element, and a first processor. The first storage element stores the first operating system. The first processor is electrically connected to the first main memory and the first storage element. The first processor is configured to load the first operating system into the first main memory and run the first operating system. The second computer module includes a second main memory, a second storage element, and a second processor. The second storage element stores a second operating system. The second processor is electrically connected to the second main memory and the second storage element, and the second processor is configured to load the second operating system into the second main memory and run the second operating system.

In one embodiment, the first computer module further includes a first transmitter and a first input/output control module. The first transmitter is electrically connected to the first processor and the transfer station module. The first input and output controller is electrically connected to the first processor and the switching module for controlling the man-machine interface. The second computer module further includes a second transmitter and a second input and output controller. The second transmitter is electrically connected to the second processor and the transfer station module. The second input and output controller is electrically connected to the second processor and the switching module for controlling the man-machine interface. In one embodiment, the mobile network module includes a connection element, the connection element is used to connect a wireless modem via a transmission line, and the mobile network module is connected to the mobile network via the wireless modem.

In one embodiment, the transfer station module is configured with a first access point parameter assigned to the first computer module and a second access point parameter assigned to the second computer module. The transfer station module is configured according to the first access point parameter. The access point parameters are communicatively connected to the first access point, and the second access point is communicatively connected according to the second access point parameters. The first access point parameters are used to indicate the first access point connected to the Internet Address; the second access point parameter is used to indicate the address of the second access point connected to the private network.

In one embodiment, the mobile network module can be used to set up a user identity recognition module and connect to the mobile network by running the user identity recognition module.

In one embodiment, the transfer station module obtains the network access point name information from the user identity identification module, and sets the first access point parameter according to the network access point name information.

In one embodiment, the human-machine interface is used to accept the operation of adding an access point, and the transfer station module sets and assigns the second access point parameters according to the operation of the new access point, and when it detects that it is assigned to the second The second access point indicated by the second access point parameter of the computer module sends a warning through the man-machine interface when it is connected to the Internet.

In one embodiment, the dual-network dual-system mobile device further includes a switching interface, which is electrically connected to the switching module, and the switching interface is used to accept the switching operation and trigger the first switching signal or the second switching signal accordingly.

In one embodiment, the switching interface is a physical button or a proximity sensor, and the first switching signal and the second switching signal are cyclically triggered according to the order in which the object is pressed or sensed. The human-machine interface includes an input element and an output element.

In one embodiment, the output element is a display element. When one of the first computer module and the second computer module is in the activated state and the other is in the shutdown state, the activated first computer module or the second computer module The computer module displays a full-screen picture through the output element, where the full-screen picture includes a status bar and a main picture.

In one embodiment, the output element is a display element, the switching module is controlled to switch the man-machine interface to electrically connect to the first computer module when receiving the first switching signal, and the output element is controlled to display the first computer in the display area The main screen of the module displays the status bar of the first computer module in another display area, and displays the status information of the second computer module in another display area.

In one embodiment, the output element is a display element, the switching module is controlled to switch the man-machine interface to electrically connect to the second computer module when receiving the second switching signal, and the output element is controlled in the display area to display the second computer The main screen of the module displays the status bar of the second computer module in another display area, and displays the status information of the first computer module in another display area.

In one embodiment, the switching interface is cyclically triggered by the first switching signal, the second switching signal, and the third switching signal, and the switching module is controlled to receive the third switching signal and the switching man-machine interface is electrically connected to the first computer Module or second computer module, the output element is controlled in the display area to display the main screen of the first computer module, another display area displays the status bar of the first computer module, and another display area displays the second computer The main screen of the module, and the status bar of the second computer module is displayed in another display area.

In one embodiment, the switching module includes an output switching circuit and an input switching circuit. One end of the output switching circuit is connected to the output element of the human-machine interface, and the other end is connected to the output ends of the first computer module and the second computer module. One end of the circuit is connected to the input element of the man-machine interface, and the other end is connected to the input ends of the first computer module and the second computer module.

In one embodiment, the man-machine interface includes a display element, and the dual-network dual-system mobile device further includes a control module. The control module is used to obtain status information of the first computer module and the second computer module, and switch the mode When the group switching man-machine interface is electrically connected to the first computer module, it controls the display element to display the status bar of the second computer module in a part of the display area, and switches the man-machine interface to electrically connect to the second computer module in the switch module During grouping, the display element is controlled to display the status bar of the first computer module in a part of the display area.

The invention can improve the convenience and ensure the information security of the second computer module.

For a preferred embodiment of the present invention, with the drawings, the detailed description is as follows.

First, please refer to FIG. 1, which is a structural diagram of a dual-network dual-system mobile device 1 according to an embodiment of the present invention.

As shown in the figure, the present invention proposes a dual-network dual-system mobile device 1 (such as a mobile phone), in which two independent computer modules (10, 11) are deployed in a single mobile device, and the two independent computers The modules (10, 11) can communicate with each other through two network channels that are virtually isolated from each other.

Specifically, the dual-network dual-system mobile device 1 includes a first computer module 10, a second computer module 11, a transfer station module 12, a mobile network module 13, a switching module 14 and a human-machine interface 15.

The first computer module 10 and the second computer module 11 are mutually independent computer modules. Furthermore, the first computer module 10 and the second computer module 11 are microcomputer systems (such as a single-chip system) or mobile computer systems (such as a computer system integrated on a single circuit board), and have their own dedicated memory , Storage, processor, software system and other necessary computer components.

In addition, the first computer module 10 and the second computer module 11 can be controlled by the user (such as via the human-machine interface 15) to execute designated applications (such as sending and receiving emails, file editing, file transmission, etc.).

The mobile network module 13 is used to connect to the mobile network 32 (such as cellular networks of mobile carriers and other networks with similar architectures or private Wi-Fi hotspots and other networks with similar architectures), and can be connected via mobile networks Route 32 connects to a designated access point (20, 21) (such as the APN equipment of a mobile carrier or corporate private network equipment with similar functions to the APN equipment) to connect to the data network through the connected access point (20, 21) Data communication via the Internet 30 or private network 31 described later. In one embodiment, the mobile network module 13 includes a wireless data module (not shown in the figure), and the wireless data module can be provided with a user identification module 131. The mobile network module 13 is connected to a mobile network 32 (such as a cellular network of a mobile carrier and other networks with similar architectures) via its wireless data module.

In one embodiment, the mobile network module 13 includes a wide area network MAC address (not shown in the figure, it has been registered to the enterprise private network equipment and can obtain connection authorization) and a Wi-Fi wireless data module (Figure Not marked). The mobile network module 13 runs the above-mentioned MAC address information and connects to the mobile network 32 (such as corporate private Wi-Fi hotspots and networks with similar architectures) through its Wi-Fi wireless data module to obtain corporate private Wi-Fi. Fi hotspot connection authorization. It is worth mentioning that the mobile network module 13 only accepts corporate private Wi-Fi hotspot connections but not other Wi-Fi hotspot connections.

One end of the transfer station module 12 is electrically connected to the mobile network module 13, and the other end is electrically connected to the first computer module 10 and the second computer module 11. The transfer station module 12 can control the mobile network module 13 to connect to multiple access points (20, 21) at the same time, and to connect multiple data networks through the connected multiple access points (20, 21).

For example, the transfer station module 12 can control the mobile network module 13 to simultaneously connect to the first access point 20 (such as an APN device that provides Internet 30 connection services) and the second access point 21 (such as providing private APN equipment connected to the network 31). Thereby, the transfer station module 12 can control the mobile network module 13 to establish a first network channel via the first access point 20 and the Internet 30, and simultaneously via the second access point 21 and the private network 31 Establish a second network channel that is virtually isolated from the first network channel.

It is worth mentioning that, in the present invention, each established network channel is allocated to a designated computer module for exclusive use, and other computer modules cannot share the same network channel. For example, if the first network channel is configured for the first computer module 10 and the second network channel is configured for the second computer module 11, the first computer module 10 is prohibited from using the second network. The second computer module 11 is prohibited from using the first network channel to connect to the first access point 20 and the Internet 30 through the second access point 21 and the private network 31.

The human-machine interface 15 (any combination of input and output components, such as button sets, displays, speakers, indicator lights, touch screens, etc.) is used to accept user operations to trigger corresponding signals and output information (such as Display screen or play sound), whereby the user can operate the designated computer module for interaction.

One end of the switch module 14 (such as a KVM module) is electrically connected to the first computer module 10 and the second computer module 11, and the other end is connected to the man-machine interface 15. The switching module 14 can switch the man-machine interface 15 to connect to one of a plurality of computer modules according to the switching signal, and interrupt the connection between the man-machine interface 15 and other computer modules.

For example, the switching module 14 can switch the connection line when receiving the first switching signal to electrically connect the man-machine interface 15 to the first computer module 10, and cut off the man-machine interface 15 and the second computer module The electrical connection between 11 allows the human-machine interface 15 to interact with the first computer module 10 but cannot interact with the second computer module 11. Moreover, the switching module 14 can switch the connection line when receiving the second switching signal to electrically connect the man-machine interface 15 to the second computer module 11, and cut off the man-machine interface 15 and the first computer module 10. The electrical connection between the man-machine interface 15 can interact with the second computer module 11 but cannot interact with the first computer module 10.

In one embodiment, in addition to the aforementioned I/O components, the first computer module 10 may further include one or more connection components (not shown in the figure, such as USB ports, Wi-Fi connection components, Bluetooth connection components, etc.) ). The aforementioned connection elements can be used to connect external devices for data access (such as connecting a wired storage device via a USB port and reading and writing data stored in the wired storage device, or via a Wi-Fi connection module, Bluetooth connection module The group connects to the wireless storage device and reads and writes the data stored in the wireless storage device).

In one embodiment, the second computer module 11 is not provided with any of the aforementioned connecting devices, so as to avoid being infected with malicious programs through the connecting device, thereby enhancing information security.

In one embodiment, when the man-machine interface 15 includes a plurality of components, the switching module 14 can be set to electrically connect only the designated components to the switched computer module when switching. For example, when it is switched to the first computer module 10 with lower requirements for information security standards, all the components of the human-machine interface 15 (such as all output components and input components) can be electrically connected to the first The computer module 10 enables the first computer module 10 to have the most complete interactive function. When switched to the second computer module 11 with higher requirements for information security standards, only part of the components of the man-machine interface 15 (such as some output components and input components) can be electrically connected to the second computer module 11 , So that the second computer module 11 can have the safest execution environment.

It is worth mentioning that when it is switched to the second computer module 11 that has higher requirements for information security standards, the first computer module 10 can still operate normally or send and receive emails or enter a standby state. In addition, when switched to have lower requirements for information security standards

When the first computer module 10 is used, the second computer module 11 can still operate normally or receive messages but will not enter standby, hibernation or shut down. This is for instant messages such as intrusive home alarms/images, company messages, etc.

The present invention uses a set of man-machine interfaces 15 to alternately operate multiple sets of computer systems, which can save the cost of adding multiple sets of man-machine interfaces 15 and reduce the size of the device.

In addition, in the example of FIG. 1, the first computer module 10 and the second computer module 11 are independent of each other and use network channels that are virtually isolated from each other. When the user switches and operates the first computer module 10 through the switch module 14 to browse the Internet 30, the daily Internet access needs can be met. When the user switches and operates the second computer module 11 through the switch module 14, it can process highly sensitive information in a highly secure environment, and can effectively prevent the first computer module 10 from infecting the second computer module with malicious programs 11. Prevent the second computer module 11 from being infected with malicious programs from the Internet 30.

The present invention provides two sets of computer modules (10, 11) in a single mobile device for users to use the same man-machine interface 15 to switch between using two sets of computer modules (10, 11) in turn, which can eliminate the need to carry two mobiles in the past The installation is troublesome, and the convenience can be greatly improved.

The present invention deploys two sets of mutually independent computer modules (10, 11), and connects the computer modules (10, 11) to a virtual isolated network, which can prevent the computer modules (10, 11) from infecting each other maliciously Programs, and greatly enhance information security.

In an embodiment, the dual-network dual-system mobile device 1 may further include a set of housings 50 (the housing 50 shown in FIG. 9). The housing 50 can cover all or part of the components of the dual-net dual-system mobile device 1 to provide different levels of protection.

In one embodiment, the transfer station module 12 may be configured with a first access point parameter (such as APN parameters) and a second access point parameter (such as another set of APN parameters). The first access point 20 is assigned to the first computer module 10, and the second access point 21 is assigned to the second computer module 11. After the mobile network module 13 is connected to the mobile network 32 (for example, the mobile network 32 is connected via a neighboring base station), the transfer station module 12 can configure the mobile network module 13 to communicate with each other according to the first access point parameters. The first access point 20 establishes a communication connection, and can simultaneously set the mobile network module 13 according to the second access point parameters to establish a communication connection with the second access point 21.

In one embodiment, the first access point 20 is connected to the Internet 30, and the second access point 21 is connected to the private network 31. The first access point parameter is used to indicate the address of the first access point 20 (such as the Internet APN device of a mobile telecommunications company) (which may include a website address, IP, connection protocol, and/or connection account password), The second access point parameter is used to indicate the address of the second access point 21 (such as the private network APN equipment of the mobile telecommunications company leased by the enterprise) (which may include the URL, IP, connection protocol, and/or connection account password) ).

In one embodiment, the man-machine interface 15 can accept the user's new access point operation (such as inputting the details of the first access point parameter and the second access point parameter), and the transfer station module 12 can follow the newly added access point The access point operates to set and assign the first access point parameter and the second access point parameter.

In one embodiment, when the parameters of the first access point have been set, the transfer station module 12 automatically sets the parameters according to the operation of the newly added access point (such as inputting the details of the second access point parameters). Parameters of the second access point connected to the private network 31.

In one embodiment, if the second computer module 11 is set to prohibit connection to the Internet 30, the transfer station module 12 can be further set to perform a filtering function. Specifically, the transfer station module 12 can detect that the second access point 21 indicated by the second access point parameter assigned to the second computer module 11 is connected to the Internet 30 via the man-machine interface 15 A warning is issued, and this second access point parameter can be further prohibited. In this way, the present invention can effectively prevent the second computer module 11 from being connected to the Internet 30 to increase additional security risks.

Please refer to FIGS. 1 to 3 at the same time. FIG. 2 is a structural diagram of a first computer module according to another embodiment of the present invention, and FIG. 3 is a structural diagram of a second computer module according to another embodiment of the present invention.

In this embodiment, the first computer module 10 includes a first main memory 101, a first storage element 102, a first transmitter 104, a first input/output controller 105, and a first processor electrically connected to the aforementioned elements 100.

The first main memory 101 (such as RAM or cache memory) includes temporary memory (such as temporary memory), and is used to temporarily store programs that are in execution or to be executed and programs that are being accessed or to be accessed data. The first storage element 102 includes permanent memory (such as non-transitory memory), and is used for long-term storage of programs or data, such as storing the first operating system 103.

The first transmitter 104 is electrically connected to the transfer station module 12, and is used to set the data to be transmitted externally (for example, convert it into a format that can be recognized by the transfer station module 12 and the mobile network module 13), and can parse it through the transfer The station module 12 and the mobile network module 13 receive data from the outside.

The first input/output controller 105 is electrically connected to the switching module 14 and used to control the human-machine interface 15. Specifically, the first input/output controller 105 may include one or more controllers (not shown in the figure), and each controller can be installed with a driver for a designated component of the human-machine interface 15, and can be used to control the human-machine interface. Designated component of interface 15.

For example, the first input/output controller 105 may include a display processor, a touch controller, and/or a storage controller. When the first computer module 10 is switched to connect to the man-machine interface 15, the display processor of the first input and output controller 105 can control the display screen or display parameters of the display element of the man-machine interface 15, and the human-machine interface 15 can be obtained through the touch controller. The touch signal or touch parameter of the touch panel of the touch screen of the machine interface 15 or the access control of the external storage device connected to the connection element through the storage controller is not limited.

In one embodiment, the second computer module 11 includes a second main memory 111, a second storage element 112 (which can store the second operating system 113), a second transmitter 114, a second input and output controller 115, and a The second processor 110 is sexually connected to the above-mentioned components.

The second main memory 111, the second storage element 112, the second operating system 113, the second transmitter 114, the second input and output controller 115, and the second processor 110 electrically connected to the aforementioned elements are respectively connected to the aforementioned first The main memory 101, the first storage element 102, the first operating system 103, the first transmitter 104, the first input/output controller 105, and the first processor 100 electrically connected to the above-mentioned elements are the same or similar to those of The functions are not repeated here.

Please also refer to FIG. 4, which is a structural diagram of a dual-network dual-system mobile device according to another embodiment of the present invention.

In this embodiment, the mobile network module 13 cannot directly connect to the mobile network 32, but must be connected to the mobile network 32 via the wireless modem 40. Specifically, the mobile network module 13 can include a connection element 130 (which can be a wired or wireless connection port, such as Wi-Fi, Bluetooth, RJ-45 or USB, and when it is a wired connection port, it can be a female connection port ), and can connect to wireless data via the connection element 130 wired (such as a USB transmission line or a network cable, such as plugging the male connector at one end of the transmission line into the aforementioned female port) or wireless (such as Wi-Fi protocol or Bluetooth protocol) It can be connected to the mobile network 32 via the wireless modem 40. Furthermore, a user identity recognition module (SIM) 131 can be set in the wireless modem 40, and the user identity recognition module 131 can be operated to connect to the mobile network 32. The aforementioned user identity identification module 131 can be a physical SIM card of any size or an embedded SIM (e-SIM) card, and is not limited. Specifically, the wireless modem 40 can be used to analyze the user identity data in the user identity identification module 131, and register with the mobile network 32 (such as a base station) based on the user identity data to obtain the network access authority.

In one embodiment, the wireless modem 40 can obtain the network access point name information (such as the information related to the Internet APN provided by the current mobile telecommunications company) from the user identification module 131, and based on the network connection The access point name information is set as the first access point parameter for connecting to the Internet 30.

Furthermore, when the parameters of the first access point have been set, the transfer station module 12 can automatically be configured for connection according to the operation of the newly added access point (for example, only the details of the second access point parameters are input) The second access point parameter of the private network 31.

It is worth mentioning that because the mobile network module 13 may not have mobile Internet capabilities (such as only Wi-Fi Internet access or wired Internet access), does not support local mobile network frequency bands (such as 700MHz) or does not support A newer communication standard (such as the LTE-Advanced communication standard or the 5G communication standard). In this case, the present invention connects the wireless modem 40 that supports this frequency band or communication standard through the connecting element 130, so as to achieve the best network quality smoothly Connect to mobile network 32.

The mobile network module 13 includes a connection element 130, which is used to connect to the wireless modem 40 via a transmission line, and the mobile network module 13 is connected to the mobile network 32 via the wireless modem 40.

Please also refer to FIG. 5, which is a structural diagram of a dual-network dual-system mobile device according to another embodiment of the present invention.

In this embodiment, a user identity recognition module 131 (SIM) can be set in the mobile network module 13 and the user identity recognition module 131 can be operated to connect to the mobile network 32. The aforementioned user identity identification module 131 can be a physical SIM card of any size or an embedded SIM (e-SIM) card, and is not limited. Specifically, the mobile network module 13 can be used to parse the user identity data in the user identity recognition module, and use the user identity data to register with the mobile network 32 (such as a base station) to obtain network access rights .

In one embodiment, the mobile network module 13 can be used to obtain network access point name information (such as information related to the Internet APN provided by the current mobile telecommunications company) from the user identification module 131. And according to the network access point name information, the first access point parameter connected to the Internet 30 is set.

In one embodiment, the dual-network dual-system mobile device 1 may further include a switch interface 140 (which can be a physical button, a virtual button, or any combination of proximity sensors, fingerprint sensors, cameras, etc.), and the switch interface 140 is electrically connected The switching module 14 is used to accept the user's switching operation and trigger the corresponding switching signal (such as the aforementioned first switching signal and the second switching signal, and/or the third switching signal described later).

For example, when the switching interface 140 is a single physical button or a proximity sensor, the triggering method can be to cyclically trigger the switching signal according to the user's pressing/sensing sequence (for example, the first pressing/sensing of the proximity of the object triggers the first Switching signal, the second switch signal is triggered when the second pressing/sensing an object approaching, the third pressing/sensing object approaching triggers the third switching signal, the fourth pressing/sensing object approaching triggers the second switch signal One switch signal, and so on).

When the switching interface 140 is a plurality of virtual keys, the trigger mode can be based on the user pressing the key to trigger the corresponding switching signal (e.g., the first switching signal is triggered when the first button is pressed, and the second switching signal is triggered when the second button is pressed. The third switch signal is triggered when the third button is pressed).

When the switch interface 140 is a fingerprint sensor or a camera, the trigger mode can be to trigger a corresponding switch signal based on the sensed/photographed object (such as sensing the fingerprint of the first finger/triggering the first switch signal when the first object is photographed) , Sensing the fingerprint of the second finger/triggering the second switching signal when the second object is photographed, sensing the fingerprint of the third finger/triggering the third switching signal when the third object is photographed).

In this way, the present invention allows the user to quickly switch the computer module to be operated, and can improve the user experience.

In one embodiment, the dual-network dual-system mobile device 1 may further include a control module 16, which is electrically connected to all components of the dual-network dual-system mobile device 1 (such as the first computer module 10, the second computer module Module 11, transfer station module 12, mobile network module 13, switching module 14 and man-machine interface 15) are used to control the operation of various components.

For example, the control module 16 can control the enabling or disabling of various components, control the mobile network module 13 to access the information of the user identification module 131 and register with the mobile network 32, and control the transfer station module 12 The first computer module 10 and the second computer module 11 are respectively configured to different designated network channels, and the switching module 14 is controlled to switch the man-machine interface 15 to the computer module currently electrically connected, and control the man-machine interface 15 display screen (as shown in Figure 9 to Figure 12).

In one embodiment, the control module 16 can obtain the real-time status from the first computer module 10 and the second computer module 11 (but it cannot directly control the first computer module 10 and the second computer module 11. To ensure information security), and the real-time status can be displayed on the display screen of the man-machine interface 15 (as shown in Figure 10 to Figure 12).

In this way, whether the user is operating the first computer module 10 or the second computer module 11, they can know the real-time status of the other computer module, which can greatly enhance the user experience.

Please also refer to FIG. 6, which is a structural diagram of a dual-network dual-system mobile device according to another embodiment of the present invention.

In this embodiment, the transfer station module 12, the mobile network module 13, and the second computer module 11 with high security are integrated into the same module (such as the same circuit board). Furthermore, the second computer module 11 is used to control the dual-network dual-system mobile device 1 (that is, the second computer module 11 is used to implement the function of the control module 16 in FIG. 5). In this way, the present invention can save the control module 16 and achieve the technical effects of reducing the size of the device and reducing the cost of the device.

In addition, the second computer module 11 with higher security is connected to the mobile network 32 through the integrated module, and can be connected to the Internet 30 through the first connection point 20. In this case, by using the transfer station function, the second computer module 11 only transfers information between the first computer module 10 and the first connection point 20, and will not suffer from the Internet 30 and the first computer module. 10 computer virus infections and malicious programs.

It is worth mentioning that compared to using the first computer module 10, which has a higher openness and a higher probability of infecting malicious programs, is used to control the dual-network dual-system mobile device 1, the present invention has high security through settings The second computer module 11 for controlling the dual-network dual-system mobile device 1 can have a better information security level.

Please also refer to FIG. 7, which is a structural diagram of a dual-network dual-system mobile device according to another embodiment of the present invention.

In this embodiment, the switching module 14 includes a switching interface 140 and a switching controller 141 electrically connected to the switching interface 140. The switching controller 141 is used to control the dual-network dual-system mobile device 1 (that is, the switching controller 141 is used to implement the function of the control module 16 in FIG. 5).

In addition, the switch module 14 has been connected to the first computer module 10 and the second computer module 11 at the same time. In this embodiment, the switching controller 141 does not require additional wiring (that is, it does not require different components electrically connected by different circuits as shown in Figure 5), and can obtain data from the first computer module 10 and the second computer module at any time. 11 related information.

In this way, the present invention can save the control module 16, and can achieve the technical effects of simplifying wiring, reducing device volume and reducing device cost.

Please also refer to FIG. 8, which is a structural diagram of a dual-network dual-system mobile device according to another embodiment of the present invention.

In this embodiment, the man-machine interface 15 includes an input element 150 (such as a touchpad or a button set) and an output element 151 (such as a display element). In addition, the switching module 14 is further used to provide an input/output independent switching function, which can individually switch the input/output of each computer module.

Specifically, the switching module 14 includes an output switching circuit 141 and an input switching circuit 142 (the output switching circuit 141 and the input switching circuit 142 may be electrically connected to the switching controller 141 and controlled by the switching controller 141 to switch). One end of the output switching circuit 141 is connected to the output element 151 (such as a display element), and one end is connected to the output ends (such as a display connection element) of the first computer module 10 and the second computer module 11. One end of the input switching circuit 142 is connected to the input element 150 (such as a touchpad, a keyboard), and one end is connected to the input ends (such as an input connection element) of the first computer module 10 and the second computer module 11.

In this embodiment, the user can respectively specify the computer module to which the output element 151 and the input element 150 are to be connected.

For example, the user can specify that the output element 151 is connected to the output end of the second computer module 11 to display the full-screen image of the second computer module 11, but at the same time, the input element 150 can be specified to be connected to the input end of the first computer module 10. To input to the first computer module 10.

In another example, the user can specify that the output element 151 is connected to the output ends of the first computer module 10 and the second computer module 11 at the same time to display the full screen of the first computer module 10 and the second computer module 11 at the same time The screen (as shown in FIG. 12), but at the same time, the designated input element 150 is connected to the input terminal of the second computer module 11 to input to the second computer module 11. In this way, the present invention allows the user to view the full-screen images of all multiple computer modules at the same time and operate the designated computer modules at the same time.

Please refer to FIGS. 9 to 12 together. FIG. 9 is a schematic diagram of a full-screen screen according to another embodiment of the present invention. FIG. 10 is a first schematic diagram of a switching screen according to another embodiment of the present invention. The second schematic diagram of the switching screen of the embodiment. FIG. 12 is a third schematic diagram of the switching screen according to another embodiment of the present invention.

In this embodiment, the dual-network dual-system mobile device 1 includes a casing 50 used to provide protection. In addition, the switching interface 140 is a button 51, and the output element 151 of the man-machine interface 15 is a display element. The control module of the dual-network dual-system mobile device 1 (the control module 16 in FIG. 5, the second computer module 11 in FIG. 6, or the switching controller 141 in FIG. 7) Regardless of the first computer module 10 and the second computer Whether the module 11 is switched and connected to the man-machine interface 15 can obtain the real-time status information from the first computer module 10 and the second computer module 11, and selectively display the information on the output element 151 after processing.

In one embodiment, the output element 151 is a display element. As shown in FIG. 9, when one of the first computer module 10 and the second computer module 11 is in the activated state and the other is in the shutdown state, it is activated The first computer module 10 or the second computer module 11 can display its full-screen image through the output element 151. The aforementioned full-screen image can include a status bar display area 60 (such as display time, network connection, battery, real-time Status information such as notifications) and the display area 61 of the main screen. Taking the first computer module 10 in the activated state and the second computer module 11 in the off state as an example, the output element 151 can be set to display the full-screen execution screen of the first computer module 10.

In one embodiment, the output element 151 is a display element. When the two computer modules (10, 11) of the dual-network dual-system mobile device 1 are both activated, the output element 151 displays the following screen:

As shown in FIG. 10, when the user presses the button 51 for the first time to trigger the first switching signal, the control module can control the switching module 14 to switch the man-machine interface 15 to the first computer module 10 and control the output The component 151 displays the main screen of the first computer module 10 in the display area 64, and displays the status bar of the first computer module 10 in the display area 62. In addition, the control module can also simultaneously control the output element 151 to display the status bar of the second computer module 11 in the display area 63 (or only display part of the status information of the status bar). In this way, when the user interacts with the first computer module 10, the real-time status information of the second computer module 11 can be obtained at the same time.

As shown in FIG. 11, when the user presses the button 51 again to trigger the second switching signal, the control module can control the switching module 14 to switch the man-machine interface 15 to the second computer module 11 and control the output element 151 The main screen of the second computer module 11 is displayed in the display area 67, and the status bar of the second computer module 11 is displayed in the display area 65. In addition, the control module can also control the output element 151 to display the status bar of the first computer module 10 in the display area 66 (or only display part of the status information of the status bar). In this way, when the user interacts with the second computer module 11, the real-time status information of the first computer module 10 can be obtained at the same time.

As shown in FIG. 12, when the user presses the button 51 again and the third switching signal is triggered, the control module can control the switching module 14 to switch the man-machine interface 15 to the first computer module 10 or the second computer at will The module 11 controls the output element 151 to simultaneously display the full-screen images of the first computer module 10 and the second computer module 11 (as shown in FIG. 12). For example, the control module can control the output element 151 to simultaneously display the status bar of the first computer module 10 in the display area 68, display the main screen of the first computer module 10 in the display area 69, and display the second computer module 10 in the display area 70 The status bar of the computer module 11 and the main screen of the second computer module 11 are displayed in the display area 71. In this way, the user can view the main screen and status bar of the first computer module 10 and the second computer module 11 at the same time.

The above are only preferred specific examples of the present invention, and are not limited to the scope of the patent of the present invention. Therefore, all equivalent changes made by using the content of the present invention are included in the scope of the present invention in the same way. Bright.

1: Dual network dual system mobile device

10: The first computer module

100: first processor

101: Primary main memory

102: The first storage element

103: The first operating system

104: first transmitter

105: The first input and output controller

11: The second computer module

110: second processor

111: Secondary main memory

112: second storage element

113: The second operating system

114: second transmitter

115: second input and output controller

12: Transfer station module

13: Mobile network module

130: connecting element

131: User Identity Identification Module

14: Switch module

140: switch interface

141: output switching circuit

142: Input switching circuit

143: Switch controller

15: Human-machine interface

150: input component

151: output components

16: control module

20: First access point

21: second access point

30: Internet

31: private network

32: mobile network

40: wireless modem

50: shell

51: Button

60-71: display area

FIG. 1 is a structural diagram of a dual-network dual-system mobile device according to an embodiment of the present invention.

FIG. 2 is a structural diagram of a first computer module according to another embodiment of the present invention.

FIG. 3 is a structural diagram of a second computer module according to another embodiment of the present invention.

4 is a structural diagram of a dual-network dual-system mobile device according to another embodiment of the present invention. FIG. 5 is a structural diagram of a dual-network dual-system mobile device according to another embodiment of the present invention.

6 is a structural diagram of a dual-network dual-system mobile device according to another embodiment of the present invention.

FIG. 7 is a structural diagram of a dual-network dual-system mobile device according to another embodiment of the present invention.

FIG. 8 is a structural diagram of a dual-network dual-system mobile device according to another embodiment of the present invention.

FIG. 9 is a schematic diagram of a full-screen image according to another embodiment of the present invention.

FIG. 10 is a first schematic diagram of a switching screen according to another embodiment of the present invention.

FIG. 11 is a second schematic diagram of switching screens according to another embodiment of the present invention.

FIG. 12 is a third schematic diagram of switching screens according to another embodiment of the present invention.

10: The first computer module

11: The second computer module

12: Transfer station module

13: Mobile network module

14: Switch module

15: Human-machine interface

20: First access point

21: second access point

30: Internet

31: private network

32: mobile network

Claims (15)

A dual-network dual-system mobile device, including: A mobile network module is used to connect to the mobile network; A transfer station module is electrically connected to the mobile network module. The transfer station module establishes a first network channel with a first access point via the mobile network module, and passes through the mobile network module. The group establishes a second network channel with a second access point, wherein the first network channel and the second network channel are virtually isolated from each other; A first computer module electrically connected to the transfer station module; A second computer module electrically connected to the transfer station module; A switching module electrically connected to the first computer module and the second computer module; A man-machine interface, electrically connected to the switching module; and A casing at least partially covering the mobile network module, the transfer module, the first computer module, the second computer module, the switch module and the man-machine interface to provide protection; Wherein, when the switching module receives a first switching signal, the man-machine interface is electrically connected to the first computer module so that the man-machine interface is used to communicate with the first computer module (10) Interact, and switch the man-machine interface (15) to electrically connect to the second computer module when a second switching signal is received so that the man-machine interface is used to interact with the second computer module ； Wherein, the transfer station module is configured to enable the first computer module to communicate externally through the first network channel, and to enable the second computer module to communicate externally only through the second network channel. The dual-network dual-system mobile device according to claim 1, wherein the first computer module includes: A primary main memory; A first storage element storing a first operating system; and A first processor is electrically connected to the first main memory and the first storage element. The first processor is configured to load the first operating system into the first main memory and run the first working system; Wherein, the second computer module includes: A second main memory; A second storage element storing a second operating system; and A second processor electrically connected to the second main memory and the second storage element, the second processor is configured to load the second operating system into the second main memory and run the second working system. The dual-network dual-system mobile device according to claim 1 or 2, wherein the first computer module further includes: A first transmitter electrically connected to the first processor and the transfer station module; and A first input and output controller, electrically connected to the first processor and the switching module, and used to control the man-machine interface; Wherein, the second computer module further includes: A second transmitter electrically connected to the second processor and the transfer station module; and A second input and output controller, electrically connected to the second processor and the switching module, and used to control the man-machine interface; The dual-network dual-system mobile device according to claim 1, wherein the mobile network module includes a connection element, the connection element is used to connect a wireless modem via a transmission line, and the mobile network module passes through the wireless The modem is connected to the mobile network. The dual-network dual-system mobile device according to claim 1, wherein the transfer station module is configured with a first access point parameter assigned to the first computer module and a parameter assigned to the second computer module The second access point parameter, the transfer station module is communicatively connected to the first access point according to the first access point parameter, and communicatively connected to the second access point according to the second access point parameter, the first The access point parameter is used to indicate the address of the first access point connected to the Internet; the second access point parameter is used to indicate the location of the second access point connected to a private network site. The dual-network dual-system mobile device according to claim 5, wherein the mobile network module is used to set a user identity recognition module and connect to the mobile network by running the user identity recognition module. The dual-network dual-system mobile device according to claim 6, wherein the transfer station module obtains a network access point information from the user identification module, and configures the first access point according to the network access point information Entry point parameters. The dual-network dual-system mobile device according to claim 7, wherein the human-machine interface is used to accept a new access point operation, and the transfer station module assigns the second Access point parameters, and when it is detected that the second access point indicated by the second access point parameter assigned to the second computer module is connected to the Internet, a warning is issued through the man-machine interface. The dual-network dual-system mobile device according to claim 1, which further includes a switching interface electrically connected to the switching module. The switching interface is used to accept a switching operation and trigger the first switching signal or the The second switching signal. The dual-network dual-system mobile device according to claim 9, wherein the switching interface is a physical button or a proximity sensor, and the first switching signal and the second switching signal and the second switching signal are triggered cyclically according to the sequence in which an object is pressed or sensed To switch signals, the man-machine interface includes an input element and an output element. The dual-network dual-system mobile device according to claim 10, wherein the output element is a display element, and the switching module is controlled to switch the man-machine interface to electrically connect to the first computer when receiving the first switching signal Module, the output element is controlled to display the main screen of the first computer module in one display area, display the status bar of the first computer module in another display area, and display the second computer in another display area Status information of the module. The dual-network dual-system mobile device according to claim 11, wherein the output element is a display element, and the switching module is controlled to switch the man-machine interface to electrically connect to the second computer when receiving the second switching signal Module, the output element is controlled to display the main screen of the second computer module in a display area, display the status bar of the second computer module in another display area, and display the first computer in another display area Status information of the module. The dual-network dual-system mobile device of claim 12, wherein the switching interface cyclically triggers the first switching signal, the second switching signal, and a third switching signal, and the switching module is controlled to receive the first switching signal 3. When switching the signal, switch the man-machine interface to electrically connect to the first computer module or the second computer module, and the output element is controlled in a display area to display the main screen of the first computer module, and in the other The display area displays the status information of the first computer module, the other display area displays the main screen of the second computer module, and the other display area displays the status information of the second computer module. The dual-network dual-system mobile device according to claim 1, wherein the switching module includes an output switching circuit and an input switching circuit, one end of the output switching circuit is connected to an output element of the man-machine interface, and the other end is connected to the first One end of the input switching circuit is connected to an input element of the man-machine interface, and the other end is connected to the input ends of the first computer module and the second computer module. The dual-network dual-system mobile device according to claim 1, wherein the man-machine interface includes a display element, the dual-network dual-system mobile device further includes a control module, and the control module is used to obtain the first computer The status information of the module and the second computer module, when the switching module switches the man-machine interface to electrically connect to the first computer module, the display element is controlled to display the information of the second computer module in a part of the display area Status information, and when the switching module switches the man-machine interface to electrically connect to the second computer module, the display element is controlled to display the status information of the first computer module in a part of the display area.

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