KR200399956Y1 - Ubiquitous Training And Development Apparatus by Mobile Phone - Google Patents

Abstract

The present invention implements a control box equipped with various electronic devices controlled by a microcomputer, a GPS receiver, a mobile phone, an RFID device, a main computer, etc. as a single training and development device, so that the remote control of the control box by a mobile phone, The present invention relates to a ubiquitous training and development apparatus using a mobile phone that enables to perform various exercises and development related to ubiquitous such as electronic map preparation and RFID data processing.

Ubiquitous training and development apparatus using a mobile phone according to the present invention is the application board 130, 140 equipped with a plurality of electronic devices, the communication port 111 and the application board 130 for data transmission and reception with an external device A main board 110 having a microcomputer 113a for controlling the electronic device of the main unit 110 and a display board 120 displaying data processed by the microcomputer 113a of the main board 110. A control box 100; The electronic device control signal is transmitted to the microcomputer 113a of the main board 110 through the communication port 111 of the main board 110 to control the operation of the electronic devices provided in the application boards 130 and 140. And a mobile phone 400 having a control box driving module 472.

Description

Ubiquitous training and development device using mobile phone {Ubiquitous Training And Development Apparatus by Mobile Phone}

The present invention relates to a ubiquitous training and development apparatus, and more particularly, to a control box equipped with various electronic devices controlled by a microcomputer, a GPS receiver, a mobile phone, an RFID device, a main computer, etc. The present invention relates to a ubiquitous practice and development apparatus using a mobile phone that enables to perform various exercises and development related to ubiquitous such as remote control of a control box by a mobile phone, electronic map preparation, and RFID data processing.

Ubiquitous (Ubiquitous) is a term that is derived from the Latin word meaning to exist at any time, anywhere, and means an information and communication environment in which a user can freely access a network regardless of time or place without being aware of a network or a computer.

Such ubiquitous is a general term for information technology (IT), which allows a computer chip to be embedded in a device or an object so that each object can be connected to a computer network and communicate with each other. The ubiquitous environment refers to the networking of objects. Basic technologies for building such a ubiquitous environment require technologies in various fields, such as a microcomputer, a global positioning system (GPS), a mobile phone, and a radio frequency identification (RFID).

Educational institutions, universities, or industrial training centers that learn and develop these ubiquitous-related technologies will purchase training and development devices for each technology field and use them for learning and development. For example, you can purchase the devices such as micom training and development device for the operation and control of the microcomputer, GPS training and development device for the operation and control of the GPS, and RFID training and development device for the RFID data processing. Development will be performed.

However, since these training and development devices are manufactured and provided as independent devices for each field, it is necessary to invest a lot of money in purchasing each training and development device from an educational institution, a university, or an industrial training institute. In this case, the practice and development process was complicated and cumbersome because the laboratory had to perform the practice and development while replacing the respective devices in the laboratory, or to carry out the practice and the development by moving each lab where each device was installed.

In addition, the conventional experimental and development apparatuses did not provide organic linkage between the practice and development apparatuses because they provided only the unique functions of each apparatus. Considering the paradigm of new information technology generated by convergence, such conventional practice and development apparatus was not efficient for practicing and developing ubiquitous environment.

The present invention is proposed to solve the problems of the above-described conventional ubiquitous practice and development apparatus, the object of the present invention is a control box equipped with an electronic device controlled by the microcomputer, GPS receiver, mobile phone, RFID device, main Compose a computer as a training and development device to enable the practice and development of various technical fields related to ubiquitous such as remote control function of control box through mobile phone, electronic map creation and RFID data processing according to GPS data analysis. To provide a ubiquitous training and development device using a mobile phone.

The ubiquitous training and development apparatus using the mobile phone of the present invention for achieving the above object is a ubiquitous training and development apparatus for practicing and developing the control operation of various electronic devices controlled by the microcomputer, a plurality of electronic devices are provided A main board having an application board, a communication port for transmitting / receiving data to / from an external device, a microcomputer controlling the electronic device of the application board, and a display board on which data processed by the microcomputer of the main board is displayed. A control box; And a mobile phone having a control box driving module for controlling an operation of the electronic device provided in the application board by transmitting an electronic device control signal to the microcomputer of the main board through the communication port of the main board.

The ubiquitous training and development apparatus includes: a GPS receiver for transmitting GPS data received from a GPS satellite to the main board through a communication port; Control box drive module for controlling the electronic device of the application board by transmitting the electronic device control signal to the microcomputer of the main board through the communication port of the main board, and receives the GPS data from the main board to create an electronic map A main computer having a GPS data processing module is further provided, and the mobile phone has GPS data for displaying GPS data transmitted from a GPS receiver or a main computer through the main board on a screen or wirelessly transmitting to a remotely located mobile phone. A processing module is provided.

The ubiquitous training and development apparatus further includes an RFID device for generating RFID data by identifying an RFID tag attached to an object to be identified and transmitting the generated RFID data to a main board through a communication port. An RFID data processing module for identifying and processing RFID data transmitted from the RFID device through a communication port of a board is provided.

The communication port of the main board includes a GPS communication port for transmitting and receiving data with the GPS receiver, a computer communication port for transmitting and receiving data with the main computer 300, a mobile phone communication port for transmitting and receiving data with the mobile phone, An RFID communication port for transmitting and receiving data with the RFID device; The main board has a function setting unit for setting a communication environment with an external device connected to the communication port and setting operations of the display board and an application board, and controlling data transmission and reception with an external device connected with the communication port. A microcomputer unit for controlling the operation of a display board and an application board by analyzing data transmitted from an external device through the communication port is provided.

The application board of the control box preferably comprises at least one electronic device of a DC motor, LED matrix, 7-segment, relay, speaker, buzzer.

In addition, the application board of the control box is connected to an external electronic device, a plurality of input and output ports for transmitting and receiving data, and a plurality of driving by the microcomputer of the main board to control the operation of the external electronic device connected to the input and output port It can be made including a relay.

The main computer includes a control box display unit for displaying the configuration of each device included in the main board, the display board and the application board of the control box, and the main board, display board and the application board displayed on the control box display unit. It is preferable that a control box driving module including a control box operation setting unit for setting operation of each device to transmit setting data to the main board of the control box.

Hereinafter, with reference to the accompanying drawings will be described in detail a preferred embodiment of the ubiquitous training and development apparatus according to the present invention.

1 is an overall block configuration of the ubiquitous training and development apparatus according to an embodiment of the present invention.

As shown in FIG. 1, the ubiquitous training and development apparatus according to the present invention includes a control box 100 having a plurality of electronic devices controlled by a microcomputer, and a control box that receives GPS data transmitted from a GPS satellite. GPS receiver 200 for transmitting to 100, a mobile phone 400 for transmitting and receiving data with the microcomputer of the control box 100 to control the electronic device provided in the control box 100, and the control box 100 Control the electronic device by transmitting and receiving data with the microcomputer of the control unit 100 and generates the RFID data and the main computer 300 to receive and analyze the GPS data transmitted from the GPS receiver 200 from the control box 100, the control box 100 It comprises an RFID device 500 for transmitting to.

The control box 100 is a device for controlling various electronic devices through a microcomputer and displaying the control state so that a practitioner can check the control state. FIG. 2 is a block diagram of a control box according to an embodiment of the present invention. The installation configuration diagram of the control box.

As shown in Figures 2 and 3, the control box 100 according to the present invention is a main board 110 is provided with a communication port 111, a function setting unit 112 and a microcomputer unit 113, and The application board 130 is provided with various electronic devices to be controlled by the main board 110, and the display board 120 displaying the control state of the electronic device through the main board 110 to the outside.

One side of the main board 110 is provided with a communication port 111 for transmitting and receiving data with an external device, the other side is a microcomputer 113 including a microcomputer 113a for controlling the application board 130 A function setting unit 112 is provided between the communication port 111 and the microcomputer unit 113 to set the function of the microcomputer unit 113.

The communication port 111 has a GPS communication port 111a for data transmission and reception with the GPS receiver 200, a computer communication port 111b for data transmission and reception with the main computer 300, and data with the mobile phone 400. A mobile phone communication port 111c for transmitting and receiving and an RFID communication port 111d for transmitting and receiving data with the RFID device 500 are provided. In the embodiment of the present invention, the GPS communication port 111a, the computer communication port 111b, the mobile phone communication port 111c, the RFID communication port 111d are a USB (Universal Serial Bus) communication port or an RS-232 communication port. Is made of.

The microcomputer 113 includes a microprocessor 113a including a microprocessor, an input / output port, and a memory, a static random access memory (SRAM) 113b for driving the microcomputer 113a, a decoder 113c, and an RTC (Real). Time Clock 113d, a switch 113e, a power 113f, and the like, in the embodiment of the present invention, the microcomputer 113a is formed of a removable microcomputer ATmega128 module. Control. The memory of the microcomputer 113a includes a control program for controlling the devices of the main board 110, the display board 120, and the application board 130, and data of an external device connected through the communication port 111. A communication program for controlling transmission and reception is registered.

The function setting unit 112 displays a function keypad 112a for setting operations of the application board 130 and the display board 120 through the microcomputer 113a, and displays a setting state of the function keypad 112a. A function LED (Light Emitting Diode) 112b, and a status LED 112c for displaying an operation state of the application board 130 and the display board 120 according to the setting of the function keypad 112a are provided.

The display board 120 is a display device for displaying the operation state of the control box 100 and the data transmitted through the mobile phone 400 or the main computer 300, etc., the display board 120 in the form of text A text LCD (Liquid Crystal Display) 121 on which data is displayed and a graphic LCD 122 on which data is displayed in a graphic form are provided. In the embodiment of the present invention, the text LCD 121 is composed of a 20 character × 4 line model, and the graphic LCD 122 is composed of a 128 × 64 dot model.

The application board 130 is a board on which various electronic devices controlled by the microcomputer 113a are installed. In the embodiment of the present invention, the application board 130 includes a DC motor 131 and an 8 × 8 dot LED matrix ( 132, a 7-segment LED 133, a relay 134, a speaker 135, a buzzer 136, and the like are installed. The electronic devices installed in the application board 130 are controlled by the microcomputer 113a provided in the microcomputer unit 113 of the main board 110. The electronic devices installed in the application board 130 are connected to the microcomputer 113a. It can be changed to another kind of electronic device controlled by the.

4 is a block diagram of a control box according to another embodiment of the present invention.

As shown in FIG. 4, the control box 100 is provided with an application board 140 of a different type from those of FIGS. 2 and 3, and the application board 140 includes a plurality of relays (relay 1,...). , Relay N) 141, a plurality of input and output ports (input and output ports 1 to N) 142 for connecting the plurality of relays 141 to an external electronic device, respectively, and a temperature sensor for sensing an ambient temperature ( 143) and the like. The plurality of relays 141 controlled by the microcomputer 113a serve as a switch for controlling the operation of the external electronic device connected through the input / output port 142, and the temperature sensor 143 of the microcomputer 113a Upon request, it senses the ambient temperature and transmits it to the microcomputer 113a. The electronic devices connected to the input / output port 142 may be formed of various electronic devices that can be controlled by the microcomputer 113a.

The GPS receiver 200 is a GPS receiver for receiving GPS data transmitted from a GPS satellite and transmitting the GPS data to the control box 100 through the GPS communication port 111a. The GPS receiver 200 includes a GPS receiving module and an antenna for receiving a GPS signal, and an output port for outputting the received GPS data to the outside. In the embodiment of the present invention, the GPS receiver ( 200 consists of a GPS traffic terminal. The GPS data received through the GPS receiver 200 is transmitted to the main computer 300 or the mobile phone 400 via the communication port 111 of the control box 100.

The main computer 300 is connected to the control box 100 to remotely control the electronic device provided on the application board 130 of the control box 100 is transmitted from the GPS receiver 200 connected to the control box 100 As a computer for analyzing and processing GPS data, the main computer 300 is a desktop type personal computer or a notebook computer.

5 is a block diagram of a main computer according to an embodiment of the present invention.

As shown in FIG. 5, the main computer 300 according to the present invention uses an input device 320 such as a keyboard or a mouse for receiving data, and data processed by the main computer 300 as a monitor or a printer. An output device 330 for outputting, a network device 340 for connection with a public network network, a communication port 350 for transmitting and receiving data with an external device such as a control box 100, and a main computer 300 And a storage unit 360 storing programs and data for driving the unit, and a central control unit 310 for controlling and managing the components. The central controller 310 drives the main computer 300 and executes various programs mounted in the storage device 360 to process data. The central controller 310 includes a general central processing unit, a ROM, RAM and the like.

The storage device 360 controls an operating system (OS) 361, such as a Windows for operating the main computer 300, and a control box 100 connected through the communication port 350. A control program 362 for transmitting and receiving data to and from the GPS receiver 200 and the mobile phone 400 connected to the control box 100, and a database 363 storing data processed through the main computer 300. ) Is mounted.

The control program 362 transmits a control signal to the microcomputer 113a of the control box 100 to control the display box 120 and the application board 130 and the control box driving module 362a and the GPS receiver 200. A GPS data processing module 262b for analyzing and processing GPS data received from the mobile phone), a mobile phone program creation module 362c providing a production tool for creating a mobile phone program driven by the mobile phone 400, An RFID data processing module 362d for analyzing and processing RFID data transmitted from the RFID device 500 is provided.

The control box driving module 362a is a program for controlling each device of the control box 100 by transmitting a control signal to the microcomputer 113a of the control box 100 through the computer communication port 111b, Figure 6 shows an example of the screen of the control box drive module according to an embodiment of the present invention.

As shown in FIG. 6, the control box driving module 362a includes a control box display unit 10 in which each component of the control box 100 is displayed, and a control box for setting operations of the devices of the control box 100. The operation setting unit 20 is provided.

The control box display unit 10 displays the configuration of each device provided in the control box 100 on the screen, and when each device of the control box 100 is driven to display the driving state of each device on the screen, Program module to check this.

The control box operation setting unit 20 displays a setting screen for setting the operation of each device of the control box 100, and generates a control signal according to the setting when the practitioner sets the operation of each device through the setting screen. It is a program module for transmitting to the microcomputer 113a of the control box 100. The control box operation setting unit 20 includes an LED matrix setting unit, a DC motor setting unit, a relay setting unit, a 7-segment setting unit, a speaker setting unit, a buzzer setting unit, a graphic LCD setting unit, a text LCD setting unit, and a function setting unit. And a state setting unit. The control box operation setting unit 20 generates a control signal according to an operator's operation setting and transmits the control signal to the microcomputer 113a of the control box 100 through the computer communication port 111b, and the microcomputer 113a receives the signal. The control signal is analyzed to control the operation of the control target.

The GPS data processing module 362b analyzes the GPS data received through the GPS receiver 200 and transmitted through the control box 100 to create an electronic map and carry the GPS data at the request of the mobile phone 400. It is a program to transmit to the phone (400). The GPS data processing module 362b grasps the location according to the analysis of the GPS data, draws an electronic map registered in the database 363, maps the current location to be identified, and creates an electronic map to display on the screen. In addition, the GPS data processing module 362b transmits the created electronic map data to the control box 100 to be displayed on the display board 120 of the control box 100, and the mobile phone of the control box 100. The electronic map is displayed on the mobile phone 400 by transmitting to the mobile phone 400 through the communication port 111c.

The mobile phone program preparation module 362c is a program for creating a program to be run on the platform of the mobile phone 400 and then transmitting the created program to the mobile phone 400 so that the mobile phone 400 can execute the program. In the embodiment of the present invention, the mobile phone 400 uses a mobile phone to which the GVM platform is applied, and the mobile phone program preparation module 162c provides a production tool for creating a program running on the GVM platform. Allows the user to write a program operable on the mobile phone 400. In an embodiment of the present invention, the mobile phone program generated through the mobile phone program preparation module 362c includes a control box driving module, a GPS data processing module, an RFID data processing module, a wireless messenger, and a mobile game.

The RFID data processing module 362d is a program that analyzes and processes RFID data generated from the RFID device 500 and transmitted through the control box 100. The RFID data processing module 362d analyzes the RFID data and displays the analysis result on the screen, and transmits the analysis result to the control box 100 to be displayed on the display board 120.

The mobile phone 400 is connected to the mobile phone communication port 111c of the control box 100 and the control box 100 and the main computer 300 and the GPS receiver 200 and RFID connected to the control box 100. The device 500 performs data transmission and reception. In the present invention, the mobile phone 400 collectively refers to a phone capable of wireless mobile communication such as a cellular telephone, a personal communications services (PCS), and a personal digital assistant (PDA). It is named by the meaning.

Since the mobile phone 400 uses a different platform for each mobile communication company, the content applied to the mobile phone 100 is also produced in a different VM (Virtual Machine) method for each mobile phone platform. In the example, the mobile phone 400 is a mobile phone having a wireless communication module and a GVM (Game Virtual Machine) platform that is easy to use compared to other platforms.

7 is a block diagram of a mobile phone according to an embodiment of the present invention.

As illustrated in FIG. 7, the cellular phone 400 includes a wireless transceiver 420 including an antenna, a duplexer, and a transmitter / receiver for transmitting and receiving wireless data, and a controller for analyzing and processing the transmitted / received data. 410, a voice input / output unit 430 equipped with a codec for voice input and output, a microphone and a speaker, a display unit 440 for externally displaying data processed by the mobile phone 400, and data from a user. And a key input unit 450 for receiving input, a communication port 460 for transmitting and receiving data with an external device, a memory 470 for storing various programs and data for driving the mobile phone 400, and the like. .

The memory 470 includes an operating system 471 such as a VGM platform for driving the mobile phone 400, a control box driving module 472 created through the mobile phone program preparation module 362c of the main computer 300, The GPS data processing module 473, the RFID data processing module 474, the wireless messenger 475, the mobile game 476, and the like are registered.

The control box driving module 472 is a control box for controlling each device of the display board 120 and the application board 130 provided in the control box 100 through the mobile phone communication port 111c Control each device of the control box 100 by transmitting it to the microcomputer 113a of 100), and wirelessly transmitting a control signal to the mobile phone 400 'remotely located to control the control box connected to the remote mobile phone 400'. This program allows you to control it.

The GPS data processing module 473 transmits GPS data transmitted from the GPS receiver 200 through the control box 100 to a mobile phone 400 ′ remotely located or from a GPS data processing module of the main computer 300 ( 362b is a program for receiving an analysis result of GPS data and displaying an electronic map on a screen, and the RFID data processing module 474 generates RFID data generated from the RFID device 500 and transmitted through the control box 100. It analyzes and displays the analysis result on the screen and transmits the RFID data to the mobile phone 400 'located remotely.

In addition, the wireless messenger 475 is a chat program for wirelessly connecting two mobile phones to transmit and receive wireless messages between the mobile phones, and the mobile game 476 is a game program for playing games on the mobile phone. .

Hereinafter, the practice and development process made through the ubiquitous practice and development apparatus of the present invention made of the above configuration will be described.

8 is an overall network connection diagram of the ubiquitous training and development apparatus according to an embodiment of the present invention.

As shown in FIG. 8, the GPS receiver 200 is connected to the GPS communication port 111a of the control box 100 to transmit and receive data, and the main computer 300 is a computer communication port of the control box 100 ( 111b) is connected to transmit and receive data, the mobile phone 400 is connected to the mobile phone communication port 111c of the control box 100 to transmit and receive data, the RFID device is an RFID communication port ( 111d) to transmit and receive data. The GPS receiver 200, the main computer 300, the mobile phone 400, and the RFID device 500 are configured to control the microcomputer 113a according to the operation of the switch 113e and the function keypad 112a of the main board 110. Data can be transmitted and received to each other by the control, the mobile phone 400 is capable of wireless data transmission and reception with other mobile phones 400 'located remotely.

On the other hand, the microcomputer 113 of the main board 100 is a control signal according to the setting of the function setting unit 112 or the control signal of the main computer 300 and the mobile phone 400 received through the communication port 111 Accordingly, the electronic device provided in the application boards 130 and 140 is driven and the setting state and the operation state of the electronic device are displayed on the display board 120.

9 is a connection diagram showing a process of controlling the control box in the main computer according to an embodiment of the present invention.

First, the main computer 300 is connected to the computer communication port 111b of the control box 100 through the connector, the switch 113e and the function keypad 112a provided on the main board 110 of the control box 100. According to the setting of the communication environment of the main computer 300 and the control box 100 is set.

When the communication between the control box 100 and the main computer 300 is set, the practitioner executes the control box driving module 362a of the main computer 300 to control the control box through the control box display unit 10 displayed on the screen ( After checking the state of 100, the operation of each electronic device displayed on the control box operation setting unit 20 is set. The control box operation setting unit 20 generates a control signal according to an operator's operation setting and transmits the control signal to the main board 110 of the control box 100 through the computer communication port 111b and the microcomputer of the main board 110. The unit 113 operates the electronic devices of the display board 120 and the application board 130 and 140 according to the control signal.

10 is a connection diagram showing a process of controlling a control box in a mobile phone according to an embodiment of the present invention.

First, the mobile phone 400 is connected to the mobile phone communication port 111c of the control box 100 through a connector, and the switch 113e and the function keypad (e.g., provided on the main board 110 of the control box 100). According to the setting of 112a), the communication environment between the mobile phone 400 and the control box 100 is set.

When communication between the control box 100 and the mobile phone 400 is set, the practitioner executes the control box driving module 472 installed in the mobile phone 400 to set the operation of each electronic device of the control box 100. According to the operation setting of the electronic device, the control box driving module 472 transmits a control signal to the main board 110 of the control box 100 through the mobile phone communication port 111c. The microcomputer 113 of the main board 110 operates the devices of the display board 120 and the application boards 130 and 140 according to a control signal transmitted from the mobile phone.

On the other hand, the mobile phone 400 transmits a control signal for controlling each electronic device of the control box 100 to the control box drive module 472 'of another mobile phone 400' located remotely, to carry the remote The control box 100 'connected to the telephone 400' may be controlled.

11 is a connection diagram illustrating a process of processing GPS data received through a GPS receiver according to an embodiment of the present invention.

The GPS receiver 200, the main computer 300, and the mobile phone 400 are connected to the GPS communication port 111a, the computer communication port 111b, and the mobile phone communication port 111c of the control box 100 through connectors, respectively. Connected and controlled with the GPS receiver 200, the main computer 300, and the mobile phone 400 according to the settings of the switch 113e and the function keypad 112a provided on the main board 110 of the control box 100. The communication environment of the box 100 is set.

After the communication between the GPS receiver 200, the main computer 300, the mobile phone 400, and the control box 100 is established, the GPS data received through the GPS receiver 200 is transmitted through the GPS communication port 111a. The main board 110 of the control box 100, the main board 110 of the control box 110 transmits the GPS data to the main computer 300 through the computer communication port 111b. The electronic map preparation module 352b included in the main computer 300 analyzes the GPS data to determine the current location, and then extracts the electronic map from the database 363 and maps it to the current location on the screen. The electronic map data generated by the main computer 300 is transmitted to the main board 110 through the computer communication port 111b, and the microcomputer 113 of the main board 110 recognizes and displays the electronic map data. It is displayed on the graphic LCD 122 of the board 120.

In addition, the GPS data received from the GPS receiver 200 according to the setting of the motherboard 110 is transmitted to the mobile phone 400, the mobile phone 400 is a GPS transmitted through the mobile phone communication port 111c The data may be recognized and displayed on the screen through the GPS data processing module 473, and the recognized GPS data may be wirelessly transmitted to the mobile phone 400 ′ located remotely.

Meanwhile, the main computer 300 may transmit the electronic map data created in the above process to the mobile phone 400 according to the setting of the main board 110 so that the main computer 300 may be displayed on the screen of the mobile phone 400. .

12 is a connection diagram illustrating a process of processing RFID data generated from an RFID device according to an embodiment of the present invention.

The main computer 300, the mobile phone 400, and the RFID device 500 are connected to the computer communication port 111b, the mobile phone communication port 111c, and the RFID communication port 111d of the control box 100 through connectors, respectively. Connected to the main computer 300, the mobile phone 400, and the RFID device 500 according to the setting of the switch 113e and the function keypad 112a provided on the main board 110 of the control box 100. The communication environment of the box 100 is set.

As the RFID device 500 is driven, the RFID reader 510 reads an RFID signal from the RFID tag 530 through the antenna 520 to generate RFID data, and generates RFID data by the RFID reader 510. Is transmitted to the main board 110 of the control box 100 through the RFID communication port 111d and then to the mobile phone 400 through the mobile phone communication port 111c by the control of the microcomputer 113a.

The mobile phone 400 analyzes and displays RFID data on the screen through the RFID data processing module 474. The mobile phone 400 'remotely stores the RFID data according to the setting of the RFID data processing module 474. Wireless transmission over

Meanwhile, the RFID data transmitted from the RFID device 500 to the main board 110 of the control box 100 is transmitted to the main computer 300 through the computer communication port 111b by the control of the microcomputer 113a, The RFID data may be analyzed by the RFID data processing module 362d of the main computer 300.

FIG. 13 is a connection diagram illustrating a process in which a plurality of electronic devices are coupled to and controlled by a relay of the application board shown in FIG. 4 according to an embodiment of the present invention.

As shown in FIG. 13, various electronic devices such as FM radio, a start motor, and an alarm are coupled to the plurality of input / output ports 142 provided on the application board 140 of the control box 100 through a connector. The operation of the electronic devices is controlled by a relay 141 respectively connected to the plurality of input / output ports 142. The relay 141 is controlled by the microcomputer 113a of the main board 110. The microcomputer 113a is connected to the mobile phone communication port 111c or the computer communication port 111b. The relay 141 is driven according to the control signals of the control box driving modules 472 and 362a of the computer 300 to control the electronic device.

As described above, the ubiquitous training and development apparatus according to the present invention is a control box 100 equipped with a microcomputer 113a and various application electronic devices controlled by the microcomputer 113a, and the communication of the control box 100. The main computer 300, the mobile phone 400, the GPS receiver 200, the RFID device 500, and the like, which are connected through the port 111, are implemented as one training and development device, and remotely control various application electronic devices. You can practice and develop various fields related to ubiquitous, such as practice, electronic map making practice through GPS data processing, RFID data processing practice, and mobile phone program writing practice.

As described above, the present invention provides a control box having an electronic device controlled by a microcomputer, a main computer, a mobile phone, a GPS receiver, an RFID device, and the like, connected to the control box to control each device of the control box. By implementing one training and development device, you can practice and develop various fields related to ubiquitous through one training and development device, saving time for training and development and making training and development devices cheaper. There is an effect that can be configured.

In particular, the ubiquitous training and development apparatus according to the present invention has an effect of increasing the use and efficiency of the mobile phone by controlling the operation of various electronic devices, centering on the mobile phone which forms the core of the ubiquitous. .

1 is an overall block diagram of a ubiquitous training and development apparatus according to an embodiment of the present invention,

2 is a block diagram of a control box according to an embodiment of the present invention,

3 is an installation configuration of a control box according to an embodiment of the present invention,

4 is a block diagram of a control box according to another embodiment of the present invention;

5 is a block diagram of a main computer according to an embodiment of the present invention;

6 is an example of a display screen of a control box drive module provided in the control program of the main computer according to an embodiment of the present invention,

7 is a block diagram of a mobile phone according to an embodiment of the present invention;

8 is an overall network connection diagram of the ubiquitous training and development apparatus according to an embodiment of the present invention,

9 is a connection diagram showing a process of controlling the control box in the main computer according to an embodiment of the present invention,

10 is a connection diagram showing a process of controlling a control box in a mobile phone according to an embodiment of the present invention,

11 is a connection diagram illustrating a process of processing GPS data received through a GPS receiver according to an embodiment of the present invention;

12 is a connection diagram showing a process of processing RFID data generated from an RFID device according to an embodiment of the present invention;

FIG. 13 is a connection diagram illustrating a process in which a plurality of electronic devices are coupled to and controlled by a relay of the application board shown in FIG. 4 according to an embodiment of the present invention.

※ Explanation of codes for main parts of drawing

100: control box 110: main board

111: Communication port 112: Function setting part

113: microcomputer 113a: microcomputer

120: display board 121: text LCD

122: graphic LCD 130, 140: application board

131: DC motor 132: LED matrix

133: 7-segment 134: relay

135: speaker 136: buzzer

141: relay 142: input and output port

200: GPS receiver 300: main computer

362: control program 362a: control box drive module

362b: GPS data processing module 362c: mobile phone program writing module

362d: RFID Data Processing Module 400: Mobile Phone

472: control box drive module 473: GPS data processing module

474: RFID data processing module 475: wireless messenger

476: Mobile Games 500: RFID Devices

Claims (7)

In the ubiquitous training and development apparatus for practicing and developing the control operation of various electronic devices controlled by the microcomputer, Application boards 130 and 140 equipped with a plurality of electronic devices, a communication port 111 for transmitting and receiving data with an external device, and a microcomputer 113a for controlling the electronic devices of the application boards 130 and 140. A control box 100 including a main board 110 provided therein and a display board 120 on which data processed by the microcomputer 113a of the main board 110 is displayed; The electronic device control signal is transmitted to the microcomputer 113a of the main board 110 through the communication port 111 of the main board 110 to control the operation of the electronic devices provided in the application boards 130 and 140. Ubiquitous training and development apparatus using a mobile phone, characterized in that it comprises a; mobile phone 400 is provided with a control box drive module (472). The method of claim 1, The ubiquitous training and development apparatus includes a GPS receiver 200 for transmitting GPS data received from a GPS satellite to the main board 110 through a communication port 111; Control box drive module for controlling the electronic device of the application board 130, 140 by transmitting an electronic device control signal to the microcomputer 113a of the main board 110 through the communication port 111 of the main board 110 And a main computer 300 having a 362a and a GPS data processing module 362b for receiving and analyzing GPS data from the main board 110 to create an electronic map. The mobile phone 400 has a GPS data processing module for displaying GPS data transmitted from the GPS receiver 200 or the main computer 300 through the main board 110 on a screen or wirelessly transmitting to a remotely located mobile phone ( 473) Ubiquitous training and development apparatus using a mobile phone, characterized in that provided. The method according to claim 1 or 2, In the ubiquitous training and development apparatus, an RFID device 500 for generating RFID data by identifying an RFID tag 530 attached to an identification object and transmitting the generated RFID data to the main board 110 through the communication port 111 is provided. Is further provided, The mobile phone 400 is provided with an RFID data processing module 474 for identifying and processing RFID data transmitted from the RFID device 500 through the communication port 111 of the main board 110. Ubiquitous training and development device using a mobile phone. The method of claim 3, wherein The communication port 111 of the main board 110 includes a GPS communication port 111a for transmitting and receiving data with the GPS receiver 200, a computer communication port 111b for transmitting and receiving data with the main computer 300, and A mobile phone communication port 111c for transmitting and receiving data to and from the mobile phone 400, and an RFID communication port 111d for transmitting and receiving data to and from the RFID device 500; The main board 110, the function setting unit 112 for setting the communication environment with the external device connected to the communication port 111 and the operation of the display board 120 and the application board 130, 140 Control the data transmission and reception with the external device connected to the communication port 111 and interpret the data transmitted from the external device through the communication port 111 to display the display board 120 and the application board 130 ( Ubiquitous training and development apparatus using a mobile phone, characterized in that the micom unit 113 for controlling the operation of the 140 is provided. The method of claim 2, The control box driving module 362a of the main computer 300 displays the configuration of each device provided in the main board 110, the display board 120, and the application board 130, 140 of the control box 100. Control box display unit 10 to be displayed on, and the operation of each device provided in the main board 110 and display board 120 and the application board 130, 140 displayed on the control box display unit 10 Ubiquitous training and development apparatus using a mobile phone, characterized in that the control box operation setting unit 20 for transmitting the setting data to the main board 110 of the control box 100 is provided. The method of claim 1, The application board 130 of the control box 100 is at least one of the DC motor 131, LED matrix 132, 7-division 133, relay 134, speaker 135, buzzer 136 Ubiquitous training and development apparatus using a mobile phone comprising the above electronic device. The method of claim 1, The application board 140 of the control box 100 is connected to an external electronic device and is driven by a plurality of input / output ports 142 for transmitting and receiving data, and the microcomputer 113a of the main board 110 for the input / output. Ubiquitous training and development apparatus using a mobile phone, characterized in that it comprises a plurality of relays (141) for controlling the operation of the external electronic device connected to the port (142).