KR20110101003A

KR20110101003A - A portable display device

Info

Publication number: KR20110101003A
Application number: KR1020100020129A
Authority: KR
Inventors: 김시환
Original assignee: 김시환
Priority date: 2010-03-05
Filing date: 2010-03-05
Publication date: 2011-09-15

Abstract

The present invention relates to a method of using two displays as a single screen, and more particularly, a joint part is provided with an input device on top of each display, and the two input devices are also connected to one input. It is about providing a structure that can be used like a device.
To this end, the present invention is provided with at least two panel housings and the display panel is mounted to each of the panel housing, when the panel housing is unfolded, the display is connected to each other so as to be seen as a single screen in a portable display device, A cover frame or a frame is provided on the top of the panel housing, a connecting seam is provided on the cover frame or the frame, and an input device is mounted on the cover frame or the frame so that the input devices are adjacent to each other.

Description

Portable Display {A PORTABLE DISPLAY DEVICE}

The present invention relates to a method of using two displays as a single screen, and more particularly, an input device is provided at the top of each display, and the two input devices are also interconnected to be used as one input device. It is about providing a structure that allows.

In order to enlarge the screen in portable, the two displays are interconnected to have the same effect as using one screen. In this case, a flat panel display panel used may include LCD, OLED, FED, PDP, and electric paper.

In addition, for this purpose, a separate panel housing that can be folded and unfolded is provided, and when the display is mounted on each of the panel housings, the display is adjacent to each other.

In addition, by effectively designing one side of the display to minimize the seam, which is a non-screen display area generated between the display. To this end, the seams are minimized by arranging the displays effectively designed on one side to be adjacent to each other.

However, the trend of the portable display device is to include an input device on the top of the display, and therefore the input device must also be mounted in accordance with the structure in which the displays are adjacent to each other. However, conventionally, a structure for solving such a need substantially has not yet been presented.

The present invention is characterized in that the two housings are connected to each other to form a single screen when the panel housing is unfolded in the folded state, even when the input device is provided on each display, the two input devices Another object of the present invention is to provide a structure and a design method that can be connected to each other to be used as an input device.

In the present invention, at least two panel housings are provided, and each of the panel housings is equipped with a display. When the panel housing is unfolded, the displays are connected to each other so as to be viewed as a single screen. A cover frame or a frame is provided at an upper end of the housing, and a connecting seam is provided to the cover frame or the frame. An input device is mounted to the cover frame or the frame, and the input devices are adjacent to each other.

The present invention is characterized in that when the panel housing is opened in a folded state, two displays are connected to each other to form one screen. In this case, an input device is provided at the top of each display so that each input device also has one input. It provides an effective structure for connecting and using as a device. In addition, the touch panel is located in the outside of the display device due to its characteristics, and in consideration of this point, the touch panel has a sealing effect and an effect that can be protected from physical impact.

1 to 7 are views illustrating an input device mounted on a frame of a cover type.
8 to 10 are diagrams illustrating a form in which an input device is mounted on a frame.
11 and 12 are views of an embodiment in which the input seam is mounted in the panel housing.
13 to 17 illustrate an embodiment in which an input device is coupled to an upper end of a panel housing.
18 and 19 are views illustrating a panel housing in which a cover or a frame is mounted.
20 to 22 are enlarged views illustrating seams of a touch panel and a display.
23 to 27 show a drive block diagram of the display device of the present invention.
28 to 29 illustrate embodiments in which the side wall is further extended to the frame.
30 and 31 are diagrams of yet another embodiment of mask printing.
32 and 33 illustrate an embodiment in which a button is provided in a frame.
34 and 35 are diagrams of embodiments in which no shaft is formed on the cover or the frame.
36 and 37 are diagrams of embodiments in which a frame is formed around an axis.
38 and 40 are views of the embodiment in which the side wall portion is provided in the cover and the frame.
41 and 42 illustrate yet another embodiment of a communication method of the portable display device of the present invention.

EMBODIMENT OF THE INVENTION Hereinafter, preferred embodiment of this invention is described with reference to an accompanying drawing.

The present invention provides a portable display device having an effect of viewing at least one screen by interconnecting at least two flat panel displays. As the flat panel display panel, LCD, OLED, FED, PDP, electronic paper, etc. may be used. In addition, when the flat panel has a form, embodiments of the present invention may be applied.

1 to 7 are views illustrating an input device mounted on a frame of a cover type.

In the present invention, a cover frame 24 is provided, and a joint part 8 is formed in the cover frame. 1 is a cover frame 24 having a shape in which one side is opened in a square shape, and the opened part is a joint part 8.

The reason why the joint 8 is present is that the two input devices 200 and 400 have a structure adjacent to each other. In addition, the input device includes a signal transmission line 250c and a connection part 250d. Naturally, the method of coupling the signal transmission line and the connection portion to the input device follows the conventional method.

A groove 24g is provided in the cover frame where the transmission line and the connecting portion are located.

In addition, the input device 200 is mounted on the support part 24c provided in the cover frame 24, and the shape in which the input device 200 is mounted on the cover frame 24 is illustrated in FIG. 2. When the input device 200 is mounted on the cover frame 24, the input device 200 is mounted lower than the height of the surface of the cover frame 24. However, it should not be too different, so the difference should be within 2mm.

In addition, it is provided with a cutout 24b in case the shaft is positioned.

In addition, the cover side wall 24d can be attached to the open part (connection joint part) of the cover frame 24, the state immediately before attachment is FIG. 3, and the state after attachment is FIG. The cover sidewall 24d protects the side of the input device. At this time, the height of the cover side wall 24d may be the same as the height of the cover frame 24, but may be low. In the low case, the difference should not exceed 2mm.

In addition, the thickness of the cover side wall 24d is preferably not more than 2 mm. That is, it may be 0.1mm or 1.5mm but it is better not to exceed 2mm. This is because it is not preferable that the cover side wall 24d is too thick to use two input devices as one input device.

In this case, the two input devices are adjacent to each other within 3 mm or 4 mm. This means that the distance between the input devices 200 and 400 can be up to 3 to 4 mm even if the cover side wall 24d is as thin as 0.3 mm.

5 and 6 are views of the embodiment showing a state in which the cover side wall 24d is integrally formed with the cover frame 24. FIG. When the input device 200 is mounted on the cover frame 24, the input device 200 is mounted lower than the height of the surface of the cover frame 24. That is, the height of the surface of the cover frame 24 is higher than the height of the surface of the input device 200.

In addition, as shown in FIG. 5, the height of the cover sidewall 24d may be the same as the height of the surface of the cover frame 24, and as shown in FIG. 6, the height of the cover sidewall may be lower than the height of the surface of the cover frame 24. . In addition, it may be structurally stable that the height of the side wall of the cover is equal to the height of the input device.

When the input device 200 is mounted on the cover frame 24 as shown in FIG. 7, the input seam 200 may be mounted in the downward direction of the cover frame 24.

Of course, in some cases, the input device may not be provided in the portable terminal. In this case, the protection plate is mounted at the position where the input device is provided.

8 to 10 are diagrams showing the form in which the input device is mounted on the frame.

As shown in FIG. 8, the frame support part 20c is provided in the frame 20b, and the input device 200 is mounted in the frame support part 20c. Similarly, one side of the rectangular frame 20b has an open shape, and the open portion becomes the joint portion 8. The two input devices 200 and 400 are adjacent to each other through the joint 8.

In addition, mask printing 16d is formed on the input device 200 mounted to the frame 20b. The mask printing 16d has an effect of making the input device opaque, and the mask printing 16 may be formed on a protective plate provided on the input device.

In addition, the mask printing 16d may be black or other opaque colors to make the transparent input device 200 visually prevent the mask printing 16d from forming a pattern, and the mask printing. In 16d, a hole that serves as an outlet for a camera, a speaker, or the like may be located.

9 is a view showing a state in which the input device 200 is mounted to the frame 20b, and FIG. 10 is a view showing a state in which a frame sidewall 24d is provided at the joint 8 of the frame 24. At this time, the thickness of the frame side wall 24d is the same as that of the cover side wall described in the previous embodiment.

Naturally, in the case of a display device which does not need to be provided with the input device 200, a protective plate made of glass or plastic is placed at the position of the input device 200.

11 and 12 are views of an embodiment in which the input seam is mounted in the panel housing.

FIG. 11 is a view illustrating an example in which a cover frame 24 having an input device 200 is mounted on a panel housing 20 on which a display 2 is mounted, and FIG. 12 illustrates a panel housing on which a display 2 is mounted. 20 is a diagram of an embodiment in which the frame 20b provided with the input device 200 is mounted thereon.

On the other hand, when covering the edge on the display 2, it covers the portion except for the seam (8). Therefore, the cover frame 24 has a shape in which one side is opened in a rectangular shape. That is, the cover frame 24 covers the edges of the three sides of the display 2 except for the joint portion. On the other hand, the cover portion 24 is provided with a cutout 24f so that the shaft can be positioned.

The joint part of the cover frame 24 is positioned at the joint part 8 of the display 2, and the joint part 8 of the input device 200 is also located here.

Similarly, when the mask printing 16d of the input device 200 blocks the edge of the upper portion of the display 2, the edges of the three sides except for the seam are blocked.

Naturally, the seam of the frame 20b is mounted on the seam 8 of the display 2, and the seam of the input device 200 is also mounted.

In addition, in the present invention, when the cover frame 24 or the frame 20b is mounted to the panel housing 20, it is natural that the cover frame 24 or the frame 20b is mounted with grooves, protrusions, or screws. Since the method is based on the method, it is not shown in the present invention.

13 to 17 illustrate an embodiment in which an input device is coupled to an upper end of a panel housing.

FIG. 13 illustrates a case in which the display 2 is mounted on the sidewalls of the panel housings 20 and 40, and the input devices 200 and 400 are mounted thereon. In addition, the protection plate 14 is attached to the side surfaces of the joints of the display 2 and the input device 200 and the 400.

The protective plate 14 may be thin in the form of a film, but may be within 0.01 mm, but may maintain a thickness from 0.2 to 0.3 mm. Naturally, the protection plate 14 needs to have a certain color.

In addition, the distance between the display 2 and the input device 200 may be within 0.1 mm to 2 mm.

And with the shield in between, the distance between the input devices is 0.02 mm and the distance between the displays is 0.02 mm.

14 and 15 are diagrams of an embodiment in which a cover sidewall 24d is provided on the side of the input device 200 or 400. The cover side wall 24d is formed integrally formed or attached to the cover frame 24 or the frame 20b as in the embodiment of FIGS. 3 to 6 and 10.

FIG. 14 illustrates a case in which the cover sidewall 24d blocks both the sidewall of the display 2 and the sidewalls of the input device 200 and 400, and only the sidewall of the input device 200. That is, it is natural that the cover sidewall 24d may be formed to be somewhat long to block the side of the display 2.

14 and 15 illustrate an embodiment in which the cover side wall 24d is connected to the cover 24 or the frame 20b, but extends from the side walls of the panel housing 20 and 40 to display 2 or input. Of course, it can block the side of the device 200.

In addition, the thickness of the cover side wall 24 may be the same as the side wall of the panel housing, but may be small. Therefore, if it is small, it can exceed 0.2mm, and if it is the same, it will not exceed 1.5mm which is the thickness of the panel housing normally. Of course, it does not have to be thinner than the panel housing thickness.

In this case, when the two panel housings 20 and 40 are unfolded, it means that the distance between the two displays 2 and 4 should be within a maximum of 3 mm. In addition, the maximum distance between the displays 2 and 4 is 3 mm even if the thickness of the cover side wall 24 or the panel housing side wall becomes thin (for example, thinly formed to 0.3 mm). Means that the distance between them can be 3mm.

16 and 17 illustrate a case where the distance between two displays 2 and 4 is greater than the distance between two input devices 200 and 400.

FIG. 17 illustrates a case in which the thickness of the side wall portion 20a of the panel housing 20 which blocks the side of the display 2 is thinner than that of the other part of the panel housing. In addition, the input devices 200 and 400 are provided on the upper ends of the displays 2 and 4, and the protection plate 14 is provided on the side of the input device. At this time, the thickness of the protective plate 14 is formed thinner than the side wall portion (20a).

FIG. 17 is a view of an embodiment in which a stepped sidewall 24d is provided, of course, a stepped sidewall 24d is not formed in the lid 24 or the frame 20b and extends in the sidewall of the panel housing 20. Of course it can be formed.

In FIG. 17, only portions that block the sides of the input devices 200 and 400 are formed in the cover 24 or the frame 20b, and portions that block the sides of the display 2 and 4 are panel housings 20 and 40. Of course, it can be formed extending to the side wall.

That is, the portion blocking the input device 200 or 400 or the side surface of the display may be the protection plate 14, the cover side wall 24d, or may be on an extension line of the side walls of the panel housing 20 and 40. . In addition, such a structure is not important, but the distance between the input devices 200 and 400 and the distance between the displays 2 and 4 is important. Therefore, the present invention is limited to the number for the thickness.

18 and 19 are views illustrating a panel housing in which a cover or a frame is mounted.

FIG. 18 illustrates a case in which two covers 24 are mounted and two input devices 200 and 400 are also mounted. FIG. 19 is a view showing an embodiment in which two frames 20b and 40b are mounted.

Displays 2 and 4 are mounted adjacent to each other in the two panel housings 20 and 40, and input devices 200 and 400 are mounted adjacent to each other on the display.

In addition, the panel housings 200 and 400 may be folded and unfolded by the shaft 6.

20 to 22 are enlarged views illustrating a joint portion of a touch panel and a display.

20 is an example of a resistive input device, in which two substrates (transparent plastics) coated with transparent electrodes are bonded to each other.

In the joint portion 8, the distance M between the bus 250n and the partition wall is within 1 mm, and the thickness L of the partition wall 250f is also within 0.01 mm to 1 mm. Naturally, the distance M may be 0 mm, of course.

In this case, the barrier rib is mainly used as a bonding means used to couple the transparent electrodes to each other or to couple other plates in the input device. The bus 250n is a signal transmission electrode line reading the resistance value.

Therefore, in the seam 8, the distance between the electrode line 250n and the boundary 250g of the input device 200 is less than 2 mm. Alternatively, the distance from the boundary of the active area 250a to the boundary 250g of the input device 200 is within 2 mm. Here, the active area is an area where the conductor is coated to sense the pressure on the surface of the input device, and thus also means an area for inputting information.

Of course, the boundary 250g of the seam 8 and the boundary of the partition 250f do not need to coincide completely, and it is natural that the partition 250f may be provided within a range of 0.5 mm from the boundary 250g. . In this case, the maximum value between the electrode line 250n and the boundary line 250g is 2.5 mm, and the maximum value from the boundary of the active area 250a to the boundary line 250g is also 2.5 mm. At this time, it is obvious that the maximum value can be maintained even if the size of the partition is small.

In addition, in the present invention, the input device is not necessarily limited to the capacitive type and the resistive film type, and is composed of a flat plate made of plastic or glass, and means all common methods of inputting information through a plane. In all conventional input devices, the seam is designed so that the active area can be located within a certain value from the boundary line.

21 is a structure in which no electrode line or the like is provided between the boundary 223a of the active area 223 and the input device boundary 250g in the capacitive manner. The distance from the active area boundary 223a to the input device boundary 250g is within 3 mm.

FIG. 22 is a view illustrating a display at a seam. In the present invention, two screens are connected to each other to minimize a seam, and thus a display for reducing a seam should also be designed.

When there is a pixel 2n closest to the seam 8 as shown in the figure, the distance J between the adjacent pixel 2n and the partition wall 2f is within 1 mm, and there is no problem even if the J value is zero.

In addition, the thickness K of the partition 2f is also within 0.8 mm and at least 0.01 mm. Therefore, the distance from the pixel 2n closest to the seam to the edge boundary 2g of the display 2 and 4 is within 2 mm. Of course, even if the partition 2f is thinner (e.g., 0.1mm), the distance between the adjacent pixel and the display edge boundary 2g can be 2mm.

Here, the partition wall 2f refers to a boundary between the inside and the outside of the two substrates forming the display panel. That is, a sealant of an adhesive material component can be used as a partition. The substrate may be etched into a partition wall to be used as a partition wall. In this case, when the display substrate is made of glass, the glass material may be a partition wall, and when the substrate is made of metal, the metal material may be the partition wall.

On the other hand, the displays 2 and 4 are usually mounted on the chassis 16, which is made of metal such as aluminum or alloy. In addition, a display module (Module) is configured by attaching a display and a display driver or a backlight component (when the display is an LCD) to the chassis.

In this case, the chassis does not necessarily need to be made of a metal material, but may be in the form of an appliance made of plastic resin. It is also possible to mix metal and plastic appliances. That is, in the present invention, the chassis collectively refers to the structure on which the display component is mounted.

In addition, the thickness of the chassis 16 in the joint part 8 shall be 0.01 mm or more and 1 mm or less. However, the maximum thickness of the most efficient chassis 16 does not exceed 0.5 mm. Therefore, the distance from the seam 8 to the boundary between the nearest pixel 2n and the chassis 16 is within a maximum of 2.5 mm.

Of course, the boundary between the display boundary line 2g and the partition wall 2f does not need to be completely coincident with the seam 8, and it is natural that the partition wall 2f may be provided within a range of 0.5 mm from the boundary line 2g. Do. In this case, the distance from the closest pixel 2n to the boundary of the chassis 16 in the seam 8 is at most 3.0 mm.

That is, in the present invention, the non-display area of the seam is the sum of the J value, the K value, and the thickness of the chassis, and the value is 3.0 mm at maximum, and the value is maximum when the two displays are interconnected. Of course, this value is of course excluded from the thickness of the protective plate or sidewall.

In this case, the chassis 16 is not necessarily provided in the case of the side surfaces of the joints 2 and 4. Instead of the chassis 16 may be a simple protective film.

In addition, it is obvious that the design structure of FIG. 22 may be applied to all display devices having the form of a flat panel display device. In other words. When the flat panel display is applied, the distance from the pixel of the seam to the display boundary may be applied to an embodiment of the present invention.

23 to 27 show a drive block diagram of the display device of the present invention.

Fig. 23 is an overall block diagram, in which the central processing unit 105 is control means for controlling the overall operation of the portable display device of the present invention. The ROM 121 controls an execution program of the display device, the RAM 122 stores data generated when the program is executed, and the EPI ROM 123 stores data needed by the user and data necessary for processing the program. Keep it.

The R / F unit 124 is a radio frequency, tunes to an RF channel, amplifies an input voice signal, and converts an RF signal received from an antenna into an intermediate frequency signal. The input unit 100 includes various input devices, numeric keys, menu keys, and selection keys.

There are display driving circuits (2a) (4a) for driving the display by the output of the central processing unit 105, and the first and second displays (2) (4) for displaying information on the screen according to the output signal of the driving circuit. There is.

In addition, the gravity sensor 235 is provided to determine whether the two displays 2 and 4 are positioned vertically or horizontally. That is, the central processing unit 105 determines whether the two displays 2 and 4 are positioned vertically or horizontally by the input signal of the gravity sensor 235. The determination of the top, bottom, left and right drives the gravity sensor and determines the output of the gravity sensor by a predetermined program method.

And, since it is a judgment as to whether the screen is positioned up or down or left and right, the gravity sensor makes a judgment about a 90-degree rotational movement. This can be done using a conventional gravity sensor.

The CPU also controls the first and second input devices 250-1 and 250-2 through the first and second input device drivers 1401-1 and 140-2. That is, since two input devices 250-1 and 250-2 are present, two input device drivers 140-1 and 140-2 are also present to control corresponding input devices.

The input devices 250-1 and 250-2 shown in the block diagram of FIG. 23 are the same as the input devices 200 and 400 shown in another view of the present invention.

24 to 27 show partial detailed block diagrams.

In the present invention, two displays 2 and 4 are provided, and two input devices 250-1 and 250-2 are also provided, and an input device is provided on the top of the display.

Therefore, the present invention is provided with a control unit for controlling the two display (2) (4), and also controls the signals output from the two input devices (250-1) (250-2).

As shown in FIG. 24, the central processing unit or the main body control unit 105 includes a controller 110, a memory 120, a time controller 125, a display driver 130, and an input device driver 140. Is provided.

That is, each component that functions as the controller 110, the memory 120, the time controller 125, the display driver 130, and the input device driver 140 is all provided in the main body controller 105 to provide a single component. It can be prepared as.

The display driver 130 divides the screen and sends data to the first display 2 and the second display 4, respectively. In addition, the input device driver 140 also corrects and adjusts signals output from the first input device 250-1 and the second input device 250-2, respectively.

In addition, in order to display the screen of the display (2) (4), the source (2b) (4b) section for providing a data signal and the gate section (2c) (4c) for providing a line selection signal Will be present.

25 and 26 illustrate the display driver 130, and the driver 130 includes a column data processor 131 and a row data processor 132.

At this time, a method of dividing a display screen into two may be divided into source data and a gate signal.

As shown in FIG. 25, the column data processing unit 131 for supplying source data (data signal on the screen) supplies the same data signal to the first display 2 and the second display 4, and supplies a low data processing unit (Gate signal). In 132, the signal is divided and supplied to the first display 2 and the second display 4.

For example, when the number of pixels of the entire screen is 320 X 240 dots, the dual data (Source, Column) line (320) and 320, the selection signal (Gate, Row) lines can be said to be 240. .

In this case, the first display 2 and the second display 4 have 320 data lines and 120 select signal lines, respectively. That is, the data line is not divided on the phone screen, but the selection signal line is divided.

In this case, the degree of division is usually 1: 1 (the value of each line is 120 lines if the entire screen is 240 lines), but the ratio may be adjusted according to the terminal design. For example, various ratios can be adjusted to the 140 lines of the first display and the 100 lines of the second display.

In the selection signal line, since only the selection signals of the same waveform are repetitive and sequentially transmitted, only the lines are divided and the same signal is transmitted by the control of the time controller 125.

In the block diagram of FIG. 26, the raw data processing unit (Gate signal) 132 supplies the same data signal to the first display 2 and the second display 4, and supplies the source data (data signal on the screen). The supplied column data processing unit 131 divides and sends a signal to the first display 2 and the second display 4, respectively.

That is, in the case of 320 X 240 Dot, as in the description of FIG. 25, the number of gate lines in the first display 2 and the second display 4 is 240, and the first display 2 and the second display are the same. The number of source lines of the two display 4 becomes 160, respectively.

That is, if the data source line is 320 lines in the entire screen before dividing, a signal is sent to the first display 2 from the first line to the 160th line, and the first to the 320th line from the 161st line to the 320th line. 2 will send a signal to the display 4. The full screen data information before division stored in the memory 120 is divided by the controller 110 and the time controller 125.

Of course, also at this time, the data line of the first display 2 and the data line of the second display do not necessarily need to be divided into 1: 1. Naturally, it can be divided into various ratios such as 2: 3, 10: 6, 6: 4, etc. That is, the capacity of the first display 2 and the second display 4 may not necessarily be 1: 1 depending on the terminal design.

27 is a detailed view of the input device driver 140.

First, the calibration function performing unit 141 performs a calibration function on the input device 250 when the system is first operated. The panel signal corresponding to the correct coordinate value for the input device 250 is selected according to the calibration function performed by the calibration function performing unit 141.

That is, the input device 250 signal corresponding to the coordinate value is selected according to the resolution of the display 2 and 4 (the number of lines of the source and the gate), and the selected signal is provided to the controller 110. Accordingly, the controller 110 stores and manages the coordinate values corresponding to the panel signal.

The average value detection frequency adjusting unit 143 adjusts the average value detection frequency for the panel signal output from the input device 250 based on the screen resolution information of the display device 2 or 4 provided from the control unit 110. When the screen resolution is changed to high resolution, the average number of times of detection is adjusted to be larger than a previously set value. On the contrary, when the screen resolution is changed to a low resolution, the average number of times of detection is adjusted to be smaller than a previously set value.

In addition, the average value detector 142 detects the average value of the panel signal transmitted from the input device 250 based on the average value detection frequency adjusted by the average value detection frequency adjustment unit 143. The detected average value is transmitted to the adjusted panel signal generator 144.

The adjusted panel signal generator 144 uses the average information of the position information of the display screen changed by the changed screen resolution or the virtual scroll of the display apparatus 2 or 4 provided from the controller 110 and the currently input panel signal. To generate an adjusted panel signal.

At this time, in the present invention, the first input device 250-1 and the second input device 250-2 are provided. Therefore, the input device driver 140 controls the signal of the first input device 250-1. Signal control of the second input device 250-2 is performed.

The first input device 250-1 and the second input device 250-2 alternately control the input device driver 140 by the control of the time controller 125 and the controller 110. )).

Alternately connecting means processing the signal generated by the first input device 250-1 and then processing the signal generated by the first input device, and alternately dividing the time into each input device 250-. 1) It processes the signal of 250-2.

And this time division is divided into very small time, such as one tenth of a second to one thousandth of a second or one millionth of a second, so that when a user inputs information by a human hand, it can cope with enough.

Although the present invention has shown an embodiment in which two or more input devices can be driven using one drive unit, it is natural that the input device driver can be provided as many as the number of input devices.

In addition, although the input device driver may be a separate part from the central processing unit, it can be obvious that the input device driving unit can be manufactured as one component integrally with the central processing unit.

That is, in the present invention, the input device driver controls the information output from the first input device according to the screen information of the first display and controls the information output from the second input device according to the screen information of the second display. By repeating the above control execution of the input device driver, the two input devices are controlled as one input device.

As a result, the first display and the second display divide one entire screen vertically or horizontally, and the first display and the second display have a structure adjacent to each other, and correspond to the output information of the first display. A second input device corresponding to output information of the first input device and the second display is provided, and the input devices are adjacent to each other, so that the two input devices are used as one input device.

28 to 29 illustrate embodiments in which the side wall is further extended to the frame.

It is sectional drawing cut | disconnected in the A direction in the shape of FIG. 2 and FIG. 9, respectively. Only in the form with the cover side wall 24d, the side wall has an extended form.

In the case of FIG. 28, the side wall part 24f of the joint part may be formed on the joint sidewall 24d, and the side wall 24e may be formed on the side wall opposite to the joint part. The side wall may further extend to the lid 24 to partially serve as the panel housing side wall.

In addition, of course, the side wall part 24f which extends to the joint part can block part or all of the side surface of the display 2, of course.

In addition, only the extended side wall 24e may be formed, or only the seam side wall 24f may be formed. In other words, both the extending side wall 24e and the joint side wall 24f need not be formed.

Naturally, the extended side wall 24e can also be formed integrally with the lid, and the joint side wall 24f can be integrally formed with the lid sidewall 24d.

FIG. 29 is a view of an embodiment in which an extended side wall 20e and a seam side wall 24f are formed in the frame 20b, and an application example thereof is the same as that of FIG.

30 and 31 are diagrams of another embodiment of mask printing.

That is, in the present invention, the mask printing 16d covers the screen non-display area at the top of the display 2 or 4. Accordingly, mask printing 16d is also formed on the other three sides except for the joint portion.

However, as shown in the embodiment of FIG. 22, the non-display area of the display 2 and 4 may be up to 3 mm. Thus, the mask printing 16d can also be formed at the seam 8. Therefore, in the seam portion 8, the mask printing 16d should not exceed 3 mm at the maximum even if it is formed.

Fig. 31 is a view showing an input device in which the mask printing 16d is formed at the joint portion (not shown separately in the present invention, but also including the input device. That is, the mask printing can be made on the protective plate). In order to allow the two panel housings 20 and 40 to be folded and unfolded, a shaft 6 is provided, and thus, a cutout portion in which both side edges of the input device 200 are cut off from the joint 8. 205). Of course, in the structure in which the shaft 6 does not need to be formed in the input device 200, the cutout 205 does not need to be formed separately.

32 and 33 illustrate an embodiment in which a button is provided in a frame.

As shown in FIG. 32, the button plate 110 is extended to the frame 20b, and the button plate 100 is provided on the button plate. Naturally, the button 100 is connected to the central processing unit 105 to control the portable display device of the present invention.

As a matter of course, the button plate 110 should be cut to a portion on which the shaft 6 is to be mounted. In this case, the cutout 205 is formed only at one edge of the input device 200.

Naturally, when the shaft 6 does not need to be provided on the button plate 110, the portion to which the shaft 6 enters the button plate 110 may not be cut.

33 is a diagram of another embodiment of mask printing 16d of the input device.

In the case where the button plate 110 is provided, the screen non-display area is blocked by the button plate 110 under the display 2, so that the mask printing 16d is opposite to the seam 8 of the input device 200. It can only be formed on the top.

33, the mask printing 16d may be formed, in which case it is formed within 3mm.

34 and 35 are diagrams of embodiments in which no shaft is formed on the cover or the frame.

The present invention indicates that two screens are interconnected. In this case, when the two screens are interconnected, they may or may not be interconnected in the structure of folding and immersion.

That is, it may be a combined structure of two screens are mutually coupled, or may be a sliding structure, and when the two screens are folded but folded, the screens are located on the same side as the screens. See KR 2010/000312)

In this case, it is obvious that the cover frame 24, the frame 20b, the button plate 110, and the input device 200 do not have to be cut to provide the shaft. 34 and 35 are views of the embodiment in this case, that is, no axis is provided in the figure, so that the cutout for the axis is not formed.

36 and 37 are diagrams of embodiments in which a frame is formed around an axis.

As shown in FIG. 36, the frames 20b-1 and 20b-2 are formed around the axis. In the case of the frame 20b in which the joint part 8 is open, the coupling force between the frame 20b and the panel housing 20 may be weakened at the joint part. In addition, the frame is extended around the shaft. In the drawings, these are referred to as "20b-1, 20b-2".

FIG. 37 is a view showing an embodiment in which the extended frame and the cover side wall 24d are connected to each other when the frame is extended around the shaft 6. In this case, the extended frames 20b-1 and 20b-2 and the cover side wall 24d may be integrally formed and manufactured.

38 and 40 are views of an embodiment in which the cover and the frame have side walls.

In the present invention, the cover frame 24 and the frame 20b are to be formed joint opening. Therefore, the coupling force may be weakened when combined with the panel housing, and the frame side wall portion 24h may be provided as a supplement thereto.

38 illustrates a case in which the side wall portion is formed in the cover frame 24, and FIG. 39 illustrates a case in which the side wall portion is formed in the frame 20b.

In addition, the display 2, 4, and the input device 200, 400 are disposed on the frame side wall portion 24h.

FIG. 39 is a cross-sectional view illustrating a state in which the display 2 and the input devices 200 and 400 are provided in the frame side wall portion 24h in a cross-sectional view.

As shown in FIG. 13, the protective plate 14 or the protective film may be attached to the side of the display 2 or the side of the input device 200.

The frame side wall portion 24h may be thinner than the panel housing side wall as in the example of FIG. 14, and a step may be formed in the frame side wall portion 24h as in the example of FIG. 17. That is, the previous embodiment may include the side wall and the protection plate that protect the side of the display or the input device at the joint.

FIG. 40 is a view showing that only the input device 200 is provided on the top of the frame side wall portion 24h, and that the display side 2 is also capable of blocking the side wall portion 24h.

In this case, as in the previous embodiment, the thickness of the sidewall portion 24h that blocks the side surface of the display may be thinner than that of other places. And it is natural that the protective plate or the protective film can block the side of the input window 200.

41 and 42 illustrate yet another embodiment of a communication method of the portable display device of the present invention.

The central processing unit shown in FIG. 41 is a case where the near field communication unit 241 and the antenna 242 are further provided in the block diagram shown in FIG. Therefore, other components are omitted for convenience of illustration.

Naturally, the near field communication unit 241 may also be combined with the central processing unit 105 to form a single component.

The separate terminal 150 may also be provided with a short range communication unit 243 and an antenna 244, and in some cases, a RAM, a ROM, and an pyramid 204 may be provided. A separate central processing unit 203 is provided for controlling the memory 204, the display 152, the input device 155, and the like.

And, although not shown for convenience, it is obvious that the microphone and speaker for the call is further provided. In addition, it is natural that a touch type input device provided on the upper side of the display may be provided instead of a button type input device as shown in the drawing.

Here, the telecommunication means a conventional communication module for exchanging information with a wide area network. The short range communication unit 241 refers to a communication module for communication with the separate terminal 150.

Local area networks typically include Bluetooth, Ultra-Wide Band (UWB), Zigbee, Wibree, Binary CDMA (Infrared CDMA) infrared communication, and RS-232 ports. In addition, it means all means of communication capable of short-range communication.

In addition, the central processing unit 203 and the short-range wireless communication unit 243 of the separate terminal 150 may be made of one component.

The information input from the separate terminal input unit 155 may be transmitted to the central processing unit 200 through the short range communication units 241 and 243 to control corresponding to the input information. That is, information generated at the input unit, such as input of letters or numbers or initiation or termination of a call, is transmitted to the central processing unit 105.

On the contrary, the information controlled by the central processing unit 105 is transmitted to the separate terminal and output through the display 152 or the speaker of the separate terminal 105.

Means used for transmitting and receiving such information are short-range wireless communication (241) (243) and antennas (242) (244).

When the information is sent, the information data is encoded, the encoded information is converted again, and the information is transmitted through the antenna through the signal transmitter.

On the other hand, when the information is received, the information received through the antenna converts the signal through the signal receiver and then decodes the signal.

That is, the short-range wireless communication unit 241, 243 is a signal transceiver, a signal converter, a signal decoder, and a signal encoder.

Of course, the separate terminal 150 may be provided with a signal distributor instead of the central processing unit 203 to distribute the signal output from the wireless communication unit 243 to the speaker or the display, respectively. It does not necessarily require a central processing unit.

42 is a diagram of an embodiment in which a telecommunication module is provided in a separate terminal.

In the case of a display device equipped with two displays 2 and 4, reference may be made to the block diagram of FIG. 10, and thus only a short range communication unit is further illustrated.

The signal output from the R / F unit 245 for telecommunication provided in the separate terminal 150 is transmitted to the central processing unit 203.

In the case of the information to be displayed on the two display apparatuses among the information processed by the central processing unit 203 of the separate terminal 150, the large screen displays 2 and 4 through the short range communication unit 241 and 243. Is displayed.

In addition, information input through the input unit 110 and the input devices 250-1 and 250-2 shown in the block diagram of FIG. 23 is centrally processed by the separate terminal 150 through the short-range communication units 241 and 243. To the device 203.

Of course, the function of the display device equipped with the two displays 2 and 4 may be referred to as a simple monitor level function. In this case, a signal distributor may be provided instead of the central processing unit 105 shown in FIG. 10. . The information from the short range communication unit is sent to the corresponding display or the speaker.

In addition, the RAM, the ROM, and the pyrom may not be provided. In this case, the central processing unit 203 provided in the separate terminal 150 substantially controls the two displays 2 and 4 and the two input devices 250-1 and 250-2. RAM, ROM, and Ipyrom 204 provided in 150 will be a high performance function.

In addition, the input devices 250-1 and 250-2 shown in the block diagram mean the same parts as the input devices 200 and 400 shown in the other drawings of the present invention.

At this time, it is natural that the display device equipped with the two displays and the separate terminal can be connected by wire without wirelessly connecting them.

2: display 14: protective cover
20, 40: panel housing 200, 400: input device
203: central processing unit 245: R / F unit for telecommunication
250-1 and 250-2: second input device 241 and 243: near field communication unit

Claims

In the portable display device is provided with at least two panel housings and the display panel is mounted to the panel housing, respectively, when the panel housing is unfolded, the displays are connected to each other so as to look like a single screen,
A cover frame or a frame is provided on an upper portion of the panel housing, a connecting seam is provided on the cover frame or frame, and an input device is mounted on the cover frame or frame, and the input devices are adjacent to each other. Device.

The portable display device of claim 1, wherein a side surface of the display is closely attached to the side wall of the panel housing, and the input device is also closely attached to the side wall of the panel housing.

The portable display device of claim 2, wherein a distance between the displays is less than 3 mm, and a distance between the input devices is less than 3 mm.

The portable display device of claim 1, wherein a display is mounted on an upper sidewall of the panel housing, and the input device is also mounted on an upper side of the panel housing sidewall.

The portable display device of claim 4, wherein the distance between the displays is at least 0.02 mm and less than 2 mm, and the distance between the input devices is at least 0.02 mm and less than 2 mm.