KR101411932B1

KR101411932B1 - Training System of Complex Fusion Platform for Smart Devices of Embedded Configuration

Info

Publication number: KR101411932B1
Application number: KR1020130112191A
Authority: KR
Inventors: 진수춘; 박찬민
Original assignee: 주식회사 한백전자
Priority date: 2013-09-17
Filing date: 2013-09-17
Publication date: 2014-06-26

Abstract

Provided is a complex fusion platform training device for smart devices in embedded configuration comprising: a base circuit board for supporting control delegation configuration of peripherals by inter-channel and a collaboration model and for executing a peripheral control technology of the embedded configuration between the heterogeneous multi-platforms; a smart device module mounted inside the base circuit board and including the devices and basic constitution of the smart device; a FPGA module mounted at one side of the base circuit board, connected to the smart device module using a wire to receive and transmit signals, and capable of executing the digital logical configuration design of the embedded configuration; an MCU module mounted at one side of the base circuit board, connected to the FPGA module to receive and transmit the signals using the wire, and capable of executing a design for a peripherals control method in firmware configuration; and a peripherals modules mounted at one side of the base circuit board, connected to the smart device module, the FPGA module, and the MCU module using the wire, and including an input device and an output device.

Description

Technical Field [0001] The present invention relates to a Smart Device for Embedded Environment,

The present invention relates to a smart device fusion platform practicing apparatus in an embedded environment, and more particularly, to a smart device complex platform practicing apparatus in an embedded environment that supports an environment for delegating control of peripheral devices by mutual channels and a collaboration model, The present invention relates to a smart device complex platform practicing apparatus in an embedded environment capable of realizing a smart device.

In recent years, the use of various smart devices such as smart phones, various tablet PCs, and laptop computers has been greatly increased, and new types of products have been developed and offered each day differently. These smart devices are used in a ubiquitous environment because they can connect to the Internet to share necessary information at any time and place, and can carry out necessary tasks anywhere.

Various application programs running on these smart devices have been developed and provided.

However, it is difficult for students who want to learn basic knowledge and driving method to develop application programs running on smart devices to have expensive professional smart device platform for learning.

In recent years, a customized embedded environment platform has been provided for a specific smart device, but there are limitations in performing various exercises and only a limited pattern of practice is possible.

The present invention has been made in view of the above points, and it is an object of the present invention to provide an embedded system capable of practicing a peripheral device control technology of an embedded environment between heterogeneous multiplatforms and supporting a control delegation environment of a peripheral device by mutual channels and a collaboration model The present invention relates to a smart device fusion platform practicing apparatus for smart devices.

A smart device fusion platform practicing apparatus in an embedded environment according to an embodiment of the present invention includes a base substrate, a smart device module mounted on one side of the base substrate and having a basic configuration and devices of the smart device, (FPGA) module mounted on one side of the base board and connected to the smart device module by wires so that signals can be exchanged with the smart device module, and is capable of performing a digital logic environment design exercise in an embedded environment; (MCU) module, which is connected to the EFIDEA module by a wiring so as to exchange signals with the EFIDEA module and is capable of conducting a design exercise on a peripheral device control method in a firmware environment, and an MCU module mounted on one side of the base board, The module is connected to EF FijiE module and the MC module, and the input and output devices are connected. And a comparative peripheral module.

The base substrate includes a smart device port to which the input / output port of the smart device module is coupled, an FMFree port to which the input / output port of the FMF module is coupled, and an MC type port to which the input / , And a peripheral device port for mounting the peripheral device module.

In addition, the base substrate is provided with a wiring for electrically connecting the smart device port, the FPC port, and the MC port.

The smart device module is configured to operate in the same manner as an actual smart device. For example, the smart device module is provided with the same configuration and devices as those of one of various smart devices such as a smart phone, various tablet PCs, and a laptop computer.

It is also possible to connect a breadboard module to the peripheral device port instead of the peripheral device module.

The base substrate is further provided with a cabling port electrically connected to the smart device port, the FPC port and the MC port, and for wiring (cabling) with the peripheral device module or the breadboard module.

A connection port is provided on the upper surface of the FPC module and the MCU module, and is connected to each electronic component constituting the FPC module and the MCU module separately from the input / output port.

The smart device complex platform exercise apparatus of the embedded environment according to the embodiment of the present invention is provided with a plurality of pin mapping terminals respectively coupled to the connection port, the cabling port and the input / output port of the peripheral module, And a pin mapping module in which a plurality of switching elements are mounted so as to selectively cut off and connect the terminal-specific connection of the terminal.

Also, the FFE module and the MCU module maintain the same level of input / output signals with the peripheral device module through clock setting, and the smart device module provides a buffer to set the level of input / output signals with the peripheral device module .

It is also possible to control a specific output device from the smart device module to the peripheral device module and to transmit the control signal of the smart device module to the FES module and to transmit the control signal of the specific output device And control delegation for controlling a specific output device through the MCU module by transmitting a control signal of the smart device module to the MCU module is also possible It is possible.

Therefore, on the display panel of the smart device module, when a control signal is directly sent from the smart device module and a control signal is sent through the FPC module, the result of the control signal transmitted through the MC model is simultaneously It is possible to easily identify and grasp the characteristics of each element.

Likewise, the same control signal can be transmitted through the smart device module and the MCU module also in the FFE module, and the control delegation can be performed, and the result thereof can be confirmed. In the MCU module, the smart device module and the FFE module It is also possible to transfer the control signal to perform control delegation and check the result.

The smart device module, the FFE module, and the MCU module can freely form a communication channel on a pin-to-pin basis through the pin mapping module.

The smart device module, the FFE module, and the MCU module have a configuration area for managing configuration information of each communication channel.

The FFE module and the MC module include a dedicated input port for inputting configuration information from the smart device module.

The smart device module is equipped with a channel setting software for transmitting channel information of the FFE module and the MCU module through a dedicated input port.

Software for controlling the peripheral device module is mounted on the smart device module, the FPC module, and the MC module.

The smart device module is provided with a program for arbitrarily setting a wiring by operating a switch element of the pin mapping module and setting pins of interfacing channels with the FFE module and the MCU module.

According to an embodiment of the present invention, it is possible to provide a control delegation environment of a peripheral device by a mutual channel and a collaboration model, and at the same time, It is possible to practice by applying the device control method, the peripheral device control method in the digital logic circuit design environment based on the FFP, and the peripheral device control method in the MCU based firmware environment, It is possible to learn the difference.

In addition, according to the smart device fusion platform practicing apparatus in the embedded environment according to the embodiment of the present invention, the interworking channel is configured to support the cooperation model between the heterogeneous platforms, so that the smart device module, the FFE module, It is possible to transmit the control signals of the module to each other.

In addition, according to the smart device fusion platform exercise apparatus in the embedded environment according to the embodiment of the present invention, since the pin mapping module is used, it is possible to provide an indirect cable connection environment, It is possible to support the pin connection so that it can be practically implemented and practiced.

1 is a perspective view illustrating a smart device fusion platform practicing apparatus in an embedded environment according to an embodiment of the present invention.
2 is a perspective view illustrating a base substrate in a smart device fusion platform practicing apparatus in an embedded environment according to an embodiment of the present invention.
3 is a perspective view illustrating an FFE module in a smart device fusion platform practicing apparatus in an embedded environment according to an embodiment of the present invention.
4 is a perspective view illustrating an MC module according to an embodiment of the present invention.
FIG. 5 is a perspective view illustrating a pin mapping module in a smart device fusion platform practicing apparatus in an embedded environment according to an embodiment of the present invention. Referring to FIG.
FIG. 6 is a perspective view of a peripheral device module in a smart device fusion platform practicing apparatus in an embedded environment according to an embodiment of the present invention. Referring to FIG.
FIG. 7 is a perspective view illustrating a breadboard module in a smart device fusion platform practicing apparatus in an embedded environment according to an embodiment of the present invention. Referring to FIG.
FIG. 8 is a block diagram conceptually illustrating a state in which a signal level between modules is kept equal in a smart device fusion platform practicing apparatus in an embedded environment according to an embodiment of the present invention.
FIG. 9 is a block diagram conceptually illustrating a cable connection between modules in a smart device fusion platform practicing apparatus in an embedded environment according to an embodiment of the present invention. Referring to FIG.
FIG. 10 is a block diagram for conceptually explaining mutual channel interworking between modules in a smart device fusion platform practicing apparatus in an embedded environment according to an embodiment of the present invention. Referring to FIG.
FIG. 11 is a block diagram conceptually illustrating control delegation of a peripheral module between modules in a smart device fusion platform practicing apparatus in an embedded environment according to an embodiment of the present invention. Referring to FIG.
FIG. 12 is a block diagram conceptually illustrating a state in which interconnecting between modules is performed through a pin mapping module in a smart device complex platform exercise apparatus in an embedded environment according to an embodiment of the present invention. Referring to FIG.
FIG. 13 is a block diagram conceptually illustrating a state in which an interworking channel of each module is set in a smart device module in a smart device fusion platform practicing apparatus in an embedded environment according to an embodiment of the present invention. Referring to FIG.

Next, a preferred embodiment of a smart device fusion platform practicing apparatus in an embedded environment according to the present invention will be described in detail with reference to the drawings.

The present invention can be embodied in various forms and is not limited to the embodiments described below.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, the present invention will be described in detail with reference to the accompanying drawings, wherein like numerals refer to like elements throughout.

As shown in FIG. 1, the smart device fusion platform training apparatus in an embedded environment according to an embodiment of the present invention includes a base substrate 10, a smart device module 20, an FPGA (FPGA) A module 30, a MCU module 40, and a peripheral device module 50. [

The smart device module 20 is mounted on one side of the base substrate 10 and has a basic configuration and devices of a smart device.

1 and 3, the FPC module 30 is mounted on one side of the base board 10 and is connected to the smart device module 20 by wiring so as to exchange signals with the smart device module 20, Of the digital logic environment.

1 and 4, the MCM module 40 is mounted on one side of the base substrate 10 and receives signals from the smart device module 20 and the FPC module 30 And it is configured to enable the design practice of peripheral device control method in the firmware environment.

1 and 6, the peripheral device module 50 is mounted on one side of the base substrate 10 and includes a module 30, an MC module (not shown) mounted on the smart device module 20 and the FPC 40 and an input device and an output device.

For example, the peripheral device module 50 may include an LED, a segment display device, a dot matrix display device, a Dip switch, a step motor driver, a DC ac converter (DAC) An alternating current direct current converter (ADC), a speaker connection jack, and a microphone connection jack.

2, the base substrate 10 is provided with a smart device port 12 to which an input / output port of the smart device module 20 is coupled, and a smart device port 12 to which an input / output port of the FFP module 30 is coupled. A MCU port 14 to which the input and output ports of the MCU module 40 are connected and a peripheral device port 15 for mounting the peripheral device module 50 are installed.

Wiring 19 for electrically connecting the smart device port 12, the FPC port 13 and the MC port 14 to each other is provided on the base substrate 10.

The smart device module 20 is configured to operate in the same manner as an actual smart device. For example, the smart device module 20 includes the same configuration and devices as the smart device, such as a smart phone and various tablet PCs, laptop computers, and the like.

It is also possible to connect the breadboard module 60 to the peripheral device port 15 instead of the peripheral device module.

Fig. 7 shows an example of the Bradford module 60. Fig.

The base substrate 10 is electrically connected to the smart device port 12, the FPC port 13 and the MC port 14 and is electrically connected to the peripheral device module 50 or the breadboard module 60, A cabling port 16 for wiring is further provided.

9, the smart device module 20, the FPC module 30, the MCU module 40, and the peripheral device module 50 may be electrically connected to each other through cabling .

3 and 4, on the upper surfaces of the FPC module 30 and the MCU module 40, the FPC module 30 and the MCMC module 40 are provided separately from the input / And connection ports 34 and 44 connected to the respective electronic components to be installed are provided.

As shown in FIG. 5, the smart device fusion platform training apparatus of the embedded environment according to the embodiment of the present invention includes the connection ports 34 and 44, the cabling port 16, A plurality of pin mapping terminals 74 coupled to the input / output ports 54 of the pin mapping terminal 50 are provided and a plurality of switching devices 76 are provided to selectively connect and disconnect the terminal mapping of the pin mapping terminals 74 And a pin mapping module 70 mounted thereon.

8, the I / O module 30 and the MCU module 40 maintain the same level of input / output signals with the peripheral device module 50 through clock setting, The module 20 is provided with a buffer 28 so as to maintain the level of input / output signals with the peripheral device module 50 at the same level.

11, it is also possible to directly control the specific output device from the smart device module 20 to the peripheral device module 50, and to control the control device of the smart device module 20, It is also possible to send the control signal to the FM module 30 to control the specific output device through the FM module 30, It is also possible to send control data to the module module 40 and control delegation to control the specific output device through the MCM module 40.

Therefore, when a control signal is directly sent from the smart device module 20 to the display panel of the smart device module 20, and when a control signal is sent through the FFE module 30, the MC model 40 It is possible to simultaneously display the resultant value when the control signal is transmitted through the antenna, and it is possible to easily confirm and grasp the characteristics of each element.

Likewise, the same control signal can be transmitted to the FM module 30 through the smart device module 20 and the MC module 40 to delegate the control to the MC module 40, , It is also possible to transmit a control signal through the smart device module 20 and the FFE module 30 to perform control delegation and confirm the result.

12, the smart device module 20, the FF module 30 and the MC module 40 are connected to each other through a pin-to-pin connection via the pin mapping module 70, It is possible to form a communication channel freely.

The smart device module 20, the FFE module 30 and the MCU module 40 have a configuration area for managing configuration information of each communication channel, as shown in FIG.

The FFE module 30 and the MCU module 40 have a dedicated input port for inputting configuration information from the smart device module 20.

The smart device module 20 is provided with channel setting software for transmitting channel information of the FM / FM module 30 and the FM module 40 through a dedicated input port.

Software for controlling the peripheral device module 50 is mounted on the smart device module 20, the FFPA module 30, and the MCMC module 40, respectively.

The smart device module 20 may be configured such that a switch element of the pin mapping module 70 is operated to arbitrarily set the wiring and the pins of the interlocking channel with the FPC module 30 and the MCU module 40 And a program for providing a setting can be installed.

For example, as shown in FIG. 13, in the smart device module 20, input / output port patterns of the smart device module 20, input / output port patterns of the FFE module 30, When the input / output port pattern of the module module 40 and the input / output port pattern of the peripheral device module 50 are displayed, the user performs pin connection by touching the screen, and when the final wiring pattern is completed, The wiring pattern input from the smart device module 20 is transmitted to the pin mapping module 70. As each switch element of the pin mapping module 70 is turned on / off corresponding to the wiring pattern, So that the constituent wiring is practically realized.

Although the preferred embodiment of the smart device fusion platform practicing apparatus in the embedded environment according to the present invention has been described above, the present invention is not limited thereto, and various modifications may be made within the scope of the claims, specification and accompanying drawings. And this is also within the scope of the present invention.

10-base substrate, 20-smart device module, 30-FFE module
40 - MC module, 50 - Peripheral module, 60 - Breadboard module
70 - Pin Mapping Module

Claims

And a tablet PC and a laptop computer, which are mounted on one side of the base board and operate in the same manner as a smart device of a smart phone, a tablet PC and a laptop computer, (FPGA) module mounted on one side of the base board and connected to the smart device module by a wiring so as to be able to exchange signals with the smart device module and capable of conducting a digital logic environment design exercise in an embedded environment, (MCU) module mounted on one side of the base unit and connected to the smart device module and the FPC module so as to send and receive signals, and capable of performing design exercises on a peripheral device control method in a firmware environment; The smart device module and the EVF module are provided with a module, an MC module Connected to the wiring and comprises a peripheral module comprising an input device and an output device,
The base substrate includes a smart device port to which the input / output port of the smart device module is coupled, an FMFree port to which the input / output port of the FMF module is coupled, and an MC type port to which the input / A peripheral device port for mounting the peripheral device module is installed,
Wherein the base substrate is provided with a cabling port electrically connected to the smart device port, the FPC port and the MC port, for wiring the peripheral device module or the breadboard module, and a cable port for connecting the smart device port, Wiring for electrically connecting the MC-type ports to each other is provided,
A connection port is provided on the upper surface of the FPC module and the MCMC module so as to be connected to the electronic components installed in the MCFC module and the FPC module separately from the input /
A plurality of pin mapping terminals which are respectively connected to the connection port, the cabling port and the input / output port of the peripheral device module are provided, and a plurality of pinning mappings A smart device complex platform exercise device in an embedded environment that further includes a module.
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The method according to claim 1,
Wherein the peripheral device port is coupled to a breadboard module in place of the peripheral device module.
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delete
The method according to claim 1,
Output signal from the peripheral device module through a clock setting, and the smart device module sets a buffer to set the level of the input / output signal with the peripheral device module to be the same Of the smart device complex platform practiced in an embedded environment.
The method according to claim 1,
It is possible to control the specific output device directly from the smart device module, the FFE module, and the MCU module to the peripheral device module, and control delegation is performed so that control signals are transmitted to other modules to perform control Embedded Environment Smart Device Complex Platform Practice Device.
The method according to claim 1,
Wherein the smart device module, the FFE module, and the MCMC module form a communication channel on a pin-to-pin basis through the pin mapping module.
The method according to claim 1,
Wherein the smart device module, the FFE module, and the MCU module each have a configuration area for managing configuration information of each communication channel,
Wherein the FFE module and the MC module include a dedicated input port for inputting configuration information from the smart device module,
The smart device module is equipped with a channel setting software for transmitting channel information of the FFE module and the MCU module through a dedicated input port,
Wherein the smart device module, the FFE module, and the MC module are each equipped with software for controlling the peripheral device module.
The method according to claim 1,
The smart device module is provided with a program for setting a pin for setting an interconnection channel between the FPC module and the MCU module by arbitrarily setting a wiring element by operating a switch element of the pin mapping module, Multiplication Platform Practice Device.