TWM333606U - Electronic device - Google Patents

Abstract

An electronic device including housing, a touch display and a processor is provided. The housing has an opening, and the touch display is disposed inside the housing for receiving an operation of an input tool. The opening exposes a portion of the touch display. The touch display has a sensing surface. The processor is coupled to the touch display, and the user interface displayed by the touch display is determined by the processor. As a result, the convenience of operating the electronic device is increased.

Description

M333606 96-11-29 VIII. New description: [New technical field] This creation is about an electronic device, and in particular, an electronic device capable of recognizing the type of input tool. [Prior Art]

In the busy and compact life of modern people, everything is about convenience and efficiency. It has become a very common habit. For example, in the case of a handheld device such as a mobile phone or a personal digital assistant, in addition to being both powerful and lightweight, users are expected to be able to turn on and perform the required functions in a very short time. This is especially true for features that users use more often, such as writing a newsletter or querying a call log. If the user can quickly turn on some commonly used functions while operating the handheld device, it is bound to improve the convenience of the handheld device.

In order to meet the above requirements, manufacturers of handheld devices have been designed to have specific hotkeys on the keyboard or housing of the handheld device. According to this, when the user presses the hot key, the corresponding commonly used function can be quickly turned on, thereby shortening the time required for searching and opening the function. For example, some mobile phone manufacturers will set a button to turn on the camera power b on the side of the mobile phone. When the user presses this button, the camera function of the mobile phone can be activated immediately. However, under the trend of lighter and lighter hand-held clusters, the space available for manufacturing hotkeys is very limited. In addition, the use of 耆 for the appearance of the handheld device can not be ignored, in order to ensure that the handheld device 5 M3 33 606 96-11-29 appearance fit (four) aesthetic requirements, the manufacture of silk money shouting must be hotkey The number, so only through a small number of _ to achieve the fast ^ common function needs. # Z In this way, there are very few ships in the hand county with a corresponding ... button for the user to quickly open. However, when the financial desire is executed without the function of the corresponding hotkey, it is necessary to open the menu by operating the menu. Since the selection of the shirts in the county is a general structure, the use of the sub-menu can be found after the selection of multiple sub-menu:: For some of the more commonly used functions, if you must pass through each time, == It will take a lot of operation time. 'This will make [new content] convenient. In view of this, the age of providing an electronic device to increase the operation of the turtle _ ΐ creation provides (4) sub-devices, including - - Touch-style crying: :^理益. Where the 'shell has an opening. Touch display ;:=:τ exposes part of the touch display. The touch V, , and the ben is used to receive an input and the operation of the camera is set to 1 繊 I & τ I ^ /. In addition, touch sensor: There is, control the sensor plane. The processor is input to the touch display, and the complex processor determines the user interface displayed by the touch display. In the present invention, the processor determines that the touch display is not = 吏: the interface may be the processor determines the type of the wheeling tool, and converts the corresponding according to the tool type user interface. 6 M333606 96-11-29 In an embodiment of the present invention, the touch display further includes a display and a touch sensing device, wherein the display is disposed in the housing. The touch sensing device is disposed in the housing and is located above the display, wherein the display and the touch sensing device are coupled to the processor. In one embodiment of the present invention, the touch sensing device sequentially includes a transparent substrate, a first conductive film, at least one spacer, a second conductive film, and a protective layer. The protective layer has this touch sensing plane. In an embodiment of the present invention, the touch sensing device further includes a plurality of electrodes extending through the transparent substrate and electrically connected to the first conductive film or the second conductive film, respectively. The flexible circuit board is disposed on a lower surface of the transparent substrate and electrically connected to the electrode and the processor. In an embodiment of the present invention, the touch sensing device includes a resistive sensor. In an embodiment of the present invention, the touch sensing device includes a capacitive sensor. In one embodiment of the present invention, the touch sensing device includes a temperature sensing. In an embodiment of the present invention, the touch sensing device includes an image capturing device for capturing an image including one of the input tools. In an embodiment of the present creation, the input tool can be a stylus or a user's finger. The present invention provides an electronic device including a housing, a touch display, and a processor. Wherein, the outer casing has an opening. The touch display is disposed in the housing, and the opening exposes a portion of the touch display. Touch 7 M333606 96-11-29 is used to receive the operation of a round-in tool. In addition, the touch-forming layer has a touch-sensing plane. The processor is coupled to the touch display, and the type of the input tool is determined. In an embodiment of the present invention, the processor further includes determining a user interface displayed by the touch display according to the type of the tool. In one embodiment of the present invention, the touch display further includes a display and a touch sensing device, wherein the display is disposed in the housing. The touch sensing φ is disposed in the housing and is located above the display, wherein the display device is coupled to the processor. In one embodiment of the present invention, the touch sensing device sequentially includes a transparent substrate, a first conductive film, at least one spacer, a second conductive film, and a protective layer. The protective layer has this touch sensing plane. In an embodiment of the present invention, the touch sensing device further includes a plurality of electrodes extending through the transparent substrate and electrically connected to the first conductive film or the second conductive film, respectively. The flexible circuit board is disposed on the lower surface of the transparent substrate and electrically connected to the electrode and the processor. In one embodiment of the present invention, the touch sensing device includes a resistive sensor. ~ In an embodiment of the present invention, the touch sensing device comprises a capacitive sensor. In one embodiment of the present invention, the touch sensing device includes a temperature sensing device. In an embodiment of the present invention, the touch sensing device includes an image capturing device for capturing an image including one of the input tools. . 8 M333606 96-11^9 ΐ ΐ — — — — — — — — — — — — — — — — — — — — — — ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' ' 输The function is to judge the type of tool of the input tool, and automatically convert and display the corresponding user interface according to the type of the =. In addition, depending on the tool type, the specific function can be turned off and closed. (4) Increasing the convenience of operating the electronic device. In order to make the above-mentioned features and advantages of the present invention more obvious and easy to understand, the following is a better description and a detailed description will be given below. [Embodiment] Some joyful functions, however, the number of hotkeys on the handheld device is two: 1: 旎 provides a user-friendly interface that simultaneously displays multiple user interfaces, which is bound to increase the number of operating handheld devices. The creation is based on the above ideas. In the case of the use of the surface of the method, the method of making money, etc., in order to make this (4) more than the Japanese, the special case of the town is used as an example that can be implemented according to the law. A flowchart of the user interface shown in one embodiment of the present invention: Referring to FIG. 1, this embodiment illustrates how the handheld device according to the input tool is not used when the use of the hand-held device is used. M333606 96-11-29 The detailed steps of the user interface corresponding to the 'automatic conversion. The handheld device includes a mobile phone, a personal digital assistant or a smart phone, etc., and the scope is not limited herein. When the tool operates the handheld device, the handheld device first receives an input signal in a user interface as shown in step 110. Then, in step 12, the touch sensing device is touched or approached according to the input tool. The sensed area, pressure, temperature, or image is used to determine the type of tool of the input tool. Finally, as shown in step 130, the handheld device converts and displays the corresponding user interface according to the type of the tool. The handheld device displays the corresponding user interface according to different tool types. For convenience of explanation, in the following embodiments For example, distinguishing between two different input tools, such as a stylus and a user's finger, and further transforming the creation by separately converting the corresponding user interface according to two different types of tools. In the scope of the present invention, any number of tool types may be included. In the following embodiments, the user interface corresponding to the stylus is a general user interface including all functions of the handheld device, and the user corresponding to the finger介= is a common function interface for displaying some functions of the handheld device. The functions that are not displayed on the common function interface can be preset by the user according to their habits or needs. There are various methods for judging the types of input tools. The method of judging requires different hardware designs, as shown in the block diagram of the handheld device shown in Fig. 2 to 2D, and the following is explained in order. ‘ M333606 96-11-29 The handheld device of Figure 2A includes a display of $ 21〇, a touch sensing device 22〇, and a processor 23〇. The display 21 is used to display a user interface, and the touch sensing device 220 is, for example, a touch panel (t〇uch pand) for detecting an input tool, operating, and generating an input signal according to the operation of the wheel guard. The tiger processor 230 is connected to the display 210 and the touch sensing device 22, and determines the tool type of the input tool and converts the corresponding user interface according to the type of the tool. The touch sensing device 220 of FIG. 2A includes a resistive sensor (Stive Sensor device) 24". The resistive sensor can sense the input: with the contact position and pressure during operation, so the input signal provided by the touch sensing device 22 includes information such as the position and pressure of the input tool contact. It is worth noting that the resistive sensor can only provide one input signal for the contact point at the same time, and the contact point is distributed within the contact area of the input tool and the resistive sensor, as shown in Figures 3A and 3B. Figure 3A! shows the stylus of the stylus, occupies t 1 to t-4, because the contact area of the stylus is small, so the contact points are concentrated. Figure 3B shows the contact point w to 手指 of the finger, Because of the contact of the fingers, the product is larger, so the contact points are more dispersed. Since the resistive sensor can only provide one input signal of the contact point during the same day, the processor 23 must continuously record the input signal for a certain period of time. Information, calculate the range of variation' and then judge the type of input tool according to the size of the range of variation. Take the four contact points in Figure 3Α and 3Β as an example, suppose the input signal generated by the contact point ^ is (Xi, Yi, Pi), where i can be I 2, 3, 4. The X coordinate along the contact position of W, γ ΐ is the γ coordinate of the contact position of 丨_丨, and pi is the contact pressure of Μ. The processor 23〇 can calculate the position and pressure separately. Level 11 M333606 96-11-29 The mean values are as follows: X Coordinate average: Xa = (xl + X2 + X3 + x4) / 4 Y Coordinate average: Ya = (Y1 + Υ2 + Υ3 + 4 . Pressure average: Pa = (Pl+P2 + P3+p4)/4 Then the range of position and pressure can be calculated separately as follows: • + | γ X coordinate variation range: do not =|Xa - X1...Xa _ 丨 丨 + X3| + |Xa — X4| Y coordinate variation range: Yd = |Ya —Y1 a +1 | |Ya —Y3 卜|Ya —Y4| Pressure variation range: Pd=|pa —P1| + |Pa — p2| + |Pa-P3卜|Pa — P4| As for how to judge the dog breeder according to the range of position and pressure variation, the sylinder is shown from 40 to 40. The flow of the following is described in the following. The type of input tool executed by the recognized processor 230 is: ... 'The flow of Fig. 4A is the type of the variable tool according to the contact position. First, the input tool is connected at the beginning of the step. Second, at step, the coordinate of the contact point is recorded at a predetermined sampling time. Then, in step 430, the number of samples is checked to be the preset number of processors 230, and the flow proceeds to step 44, otherwise the flow proceeds to step 420 to continue recording. Next, in step 440, the variation range of the contact position xd, 12 M333606 96-11-29 is calculated.

Yd, in step 450, it is checked whether Xd < Vx and Yd < Vy, where Vx and Vy are preset ranges of the processor 230. If the range of the two coordinates is less than the corresponding preset range, the processor 230 determines in step 460 that the input tool type is a stylus and converts the user interface into a corresponding common user interface. Otherwise, the processor 230 determines in step 470 that the input tool type is a finger and converts the user interface into a corresponding common function interface.

Fig. 4B is a flow chart showing another method of identifying the type of input tool performed by the processor 230. The flow of Fig. 4B is to determine the type of the tool based on the range of variation of the contact pressure. The processor 230 records the contact pressure of the input tool every other sampling time in step 421, calculates the variation range Pd of the contact pressure in step 441, and then checks in step 451 whether or not pd < Vp, where v is the preset range of the processor 230. If pd < %, the processor 23 determines in step 460 that the input tool face is a stylus, and converts the user interface into a corresponding /, user interface. Otherwise the processor is said to be in the step

ίTwo cheeks are fingers' to convert the user interface into the corresponding common function moon, face. The remaining steps of FIG. 4B are the same as those of FIG. 4A and will not be described again. Knowledge Side: The type of input tool implemented by Liyi 230 is the same as the process of calculating the contact position according to the contact position and the pressure-segment sampling time to the artificial target in the step 442; Range\contact position and pressure 'in step ^ under-acting dry circumference Xd, Yd and contact pressure change ==, then at step 452 to check if xd<vx, Yd<vy and HAiiL _ fruit 7 processor 230 at Step 460 determines to input eight*, '', and empty pens, and converts the user interface into a corresponding common use 13 M333606 96-11-29 interface. Otherwise, the processor 230 determines in step 470 that the input tool type is a finger and converts the user interface into a corresponding common function interface. The remaining steps of Fig. 4c are the same as those of Fig. 4A and will not be described again. Next is another input tool type identification method under the hardware design, please refer to FIG. 2B and FIG. 2B is a block diagram of a handheld device according to another embodiment of the present invention. The main difference between FIG. 2B and FIG. 2A is that the touch sensing device 220 of FIG. 2A is replaced with a touch including a capacitiye sensor device 250. The sensing device 22 has a plurality of arrayed sensing pads (sens〇r pM) in construction. The induction 塾 only produces a capacitive effect on a sufficiently large conductor to sense the contact or proximity of the conductor. Fingers and conductors can induce induction. If the stylus is guided, made, and large enough, it can also sense the sensor pad. Capacitive sensing is generally detected by scanning, so that many sensing pads can be sensed at the same time or in a short period of time. The processor 230 of Fig. 2B can calculate the size of the sensing area based on the number of sensing pads that are sensed, and distinguish that the input tool is a finger or a stylus. FIG. 5 is a flow chart of the input tool type identification method executed by the processor 230 of FIG. 2B. First, at step 510, the contact or proximity of the input tool is detected every other sampling time, and then at step 52, it is checked whether the sensing pad is inductive. If not, go back to step 51 and continue to detect. If yes, proceeding to step 530, when the input tool operates the touch sensing device 221 for a predetermined period of time, the number of sensing pads sensed is generated in the capacitive sensor 25A. It is then checked in step 540 whether the number of sensing pads is less than a preset value of the processor 230. If the number of sensing pads is less than the preset value, the M333606 96-11-29 processor 230 determines in step 550 that the input tool type is a stylus and converts the user interface to a corresponding common user interface. Otherwise, the processor 230 determines in step 560 that the input tool type is a finger and converts the user interface into a corresponding common function interface. The above preset values can be set according to the density of the unit area of the sensor pad. FIG. 2C is a block diagram of a handheld device according to another embodiment of the present invention. The main difference between FIG. 2C and FIG. 2A is that the touch sensing device 22 of FIG. 2A is configured. The touch sensing device 222 includes a temperature sensor 260. In this embodiment, the processor 230 determines the type of the tool according to the tool temperature when the input tool contacts or approaches the touch sensing device 222. Referring to FIG. 2C and FIG. 2C, when the user operates on the touch sensing device 222 by using the input tool, the processing person 230 will receive the corresponding input signal (step 11〇). At this time, the processor 230 detects the input tool through the temperature sensor 26 and compares the tool temperature with a preset temperature (for example, room temperature and line. If the tool temperature is lower than the preset temperature, the display shows that the 21Gi display corresponds to the common The user interface or common i can be as described in the embodiment (step 13A).

The device 230 determines that the wheeling tool is a stylus, and vice versa, determines the input __, "', and refers to (step 120). Next, the processor 230 follows the instructions of the M333606 96-11-29 270. Controlling the sensing device 223. When the user operates the touch sensing device 223 by using the wheeling tool, in step 11A, the processor 23 receives an input signal through the touch sensing device 223. Then, in the step, the processing is processed. The control image capture device 270 captures the image including the input tool and determines the type of tool according to the feature or dimension of the input tool in the image. For example, the processor 230 can transmit image recognition technology. Obtain the characteristics of the edge contour of the input tool in the image, and judge the type of the tool. Or calculate the size of the input tool in the image and compare it with the size of the reference object to determine the tool type. The processor 230 determines that the input tool is a stylus, and displays the common user interface through the display 210 in step 13. If the processor 23 determines that the input tool is a finger, it passes through the step 130. The display 210 displays a common function interface. It is worth mentioning that the processor in the handheld device can adjust the size of the user interface option when converting and displaying the user interface according to the type of the tool. When the input tool is a stylus, as shown in Figure 6, the options on the user interface 600 are displayed in a normal size. However, when the processor determines that the input tool is the finger of the user, it will use The options of the interface are fully enlarged to the size of the finger operable, as shown in the user interface 700 of Figure 7, to facilitate the user to operate the user interface through the finger. The above options include images that can be selected by the input tool ( Items such as icon) or image (image). In addition to converting different user interfaces according to the type of input tool, the handheld device of this creation can also perform various preset functions in different ways according to the type of input tool, as shown in the flow chart of FIG. Figure 8 is a flow chart of a user interface operation method performed by the handheld device according to an embodiment of the present invention. The detailed description is as follows. First, the processor of the handheld device receives the input signal through the touch sensing device (step 81), determines the type of the input guard that generates the input signal (step 82), and then performs the preset function according to the type of the guard. (Step 830). For example, the preset function may be to switch the corresponding user interface according to the type of the tool (step 84A), and the related details are included in the previous embodiment, and are not described again. The function can also be to turn on or off a specific function according to the type of tool (steps). The processing can also perform other preset functions according to the tool surface 'not limited to the above example. Step 850 (4) The function can be the user interface translation function ( Panning), user interface scrolling function (scr〇1Ung), or both (step 860). For example, when the input tool is a stylus, the user interface is moved and scrolled, and when the input tool is a finger, the user interface pan and scroll function is turned on, so that the user can use the finger to pan or scroll. The content of the interface. The detailed flow of step 860 is shown in Figure 8B. First, in step 861, it is judged that the input tool type is a finger, and the user interface panning and scrolling function is turned on. At step 862, it is checked if the contact or proximity state of the finger has been removed, that is, whether the finger has left the touch sensing device. If not, the user interface translation function is performed in step 863 to allow the user interface to pan as the user's finger moves. On the other hand, if the finger has left the touch sensing device, it is checked in step 864 if there is a movement while the finger is away. Silk secret, the end of the record. If it is correct, proceed to step 17 M333606 96-11-29 865 ' to perform the user interface scrolling function, so that the user interface scrolls with the direction of the finger movement. Alternatively, the particular function of step 850 can be a multiple selection function (step 870). For example, when the input tool is a stylus, the multi-selection '2 can be turned on, so that the user can select the plurality of Zhao items or function items on the user interface while the input tool is the finger, and the multi-select function is off when the input tool is a finger. To allow users to select only a single item. Because the accuracy of the finger is not as good as the stylus, it is easy to mis-select, which can improve the precision and efficiency of use. The detailed flow of step 87 is as shown in Fig. 8C. First, in step 871, it is judged that the input tool type is a stylus, and the multiple selection function is turned on. Then in step 872, it is checked whether the stylus contacts or approaches the area of the touch sensing device to cover any options. If not, the process ends here. If so, in step 873 all options covered by the contact area are selected. In yet another aspect, the particular functionality of step 850 can include a drawing brush function and a drawing eraser function (step 88). For example, when the input tool is a stylus, the edge brush function is turned on and the drawing eraser function is turned off, so that the user can draw with the stylus. On the other hand, when the input tool is a finger, close the _ brush function and turn on the 四 (4) eraser function, let the user use the finger as an eraser to erase the previous edge image. In addition, the processor can also turn other specific functions on or off according to the type of tool, not limited to the above examples. The handheld device of the above embodiment can be extended to a general electronic device. The method flow of the above embodiments can also be performed by the operating system of the handheld device or the electronic device or the function of the electronic device. The above 18 M333606 96-11-29 system or application can be stored in a computer-readable recording medium, which can be executed by % sub-installation. In the embodiment of the crystal to 2D, two 7L parts of the display and the touch sensing device j, wherein the display is used to display the user interface, and the touch sensing device (10) receives the input position. In other embodiments of the present invention, The display and the touch sensing device can constitute a touch display, as shown in FIGS. 9A and 9B.

Figure 9A is an exploded view of an electronic device in accordance with an embodiment of the present invention, and Figure 9B is a cross-sectional view of the electronic device of Figure 9A. % shows a cross-sectional view of the touch sensing device of Figure 9a. Referring first to Figures 9A and 9β, the electronic device includes a housing 910, a touch display 92A, and a processor 93A. The housing 910 has an opening 91Ga in communication with the outside. The touch display 92 is disposed in the housing 910, and the opening 91 〇 a exposes a portion of the touch display interface 920. In addition, the touch display 92 is configured to receive an input tool, and the touch sensing device 920 has a touch sensing plane 92A. It should be noted that since the touch display 920 is located in the housing 91, a height difference (as shown by the area A) is formed between the housing 910 at the edge of the opening 910a and the touch sensing plane 92A. This height difference is, for example, about PCT. In other words, the range of movement of the input tool is limited by the opening 91 〇 a. Further, the processor 930 is coupled to the touch display 92 〇 and is used to determine the type of the input tool. As in the previous embodiment, the processor 93 can determine the type of input tool based on the area, pressure, temperature, or image when the touch sensing device 924 is operated by the input tool. Similarly, according to the manner of the method, the touch sensing device 924 can include a resistive sensor, and the touch sensing device 924 can include a capacitive sensor. Alternatively, the touch display 920 can include a temperature sensor. Alternatively, the touch display 920 may include an image capture device for operating the package and inputting an image of the tool. As for the judgment process and the execution of the preset function, etc., it has been seen in the previous embodiment, and the description will not be repeated. It should be noted that although the method of displaying different user interfaces may be different depending on the face of the input tool, the method of judging the display of different user interfaces is not limited to the above-mentioned judgment method. . In addition, the result of determining the type of the input tool is not limited to determining only the displayed user interface, and the processor may decide to drive other programs or perform other actions based on the result. In this embodiment, the touch display 920 includes a display 922 and a touch sensing device 924. However, in other embodiments, the display 922 and the touch sensing device 924 can also be integrated into a single module. In addition, the display 922 and the touch sensing device 924 are coupled to the processor 930, respectively. In the example of the present invention, both the display 922 and the touch sensing device 924 are disposed in the casing 910, and the opening 91〇a exposes a portion of the touch sensing device 924. In addition, the touch sensing device 924 is located above the display 922, and the touch sensing device 924 has a touch sensing plane 920a for receiving the operation of an input tool. Some components will be described in detail below. Referring to FIG. 9A and FIG. 9C, the touch sensing device 924 includes a transparent substrate 9242, a first conductive film 9244a, a second conductive film 9244b, a protective layer 9240 and at least one spacer 9248. The first conductive film 9244a 20 M333606 96-11-29 is disposed on the transparent substrate 9242, and the second conductive film 9244b is disposed above the first conductive film 9244a. In the present embodiment, the material of the first conductive film 9244a and the second conductive film 9244b is, for example, indium tin oxide (〖το) or other transparent conductive material. The protective layer 9246 is disposed on the second conductive film 9244b, and the protective layer 9246 has a touch sensing plane 92〇a. Further, a spacer 9248 is disposed between the first conductive film 9244a and the second conductive film 9244b to partition the first conductive film 9244a and the second conductive film 9244b. In this embodiment, the touch sensing device 924 further includes a plurality of electrode through holes 9242a and a flexible circuit board 924a. The electrodes 9242a extend through the transparent substrate 9242 and are electrically connected to the first conductive film 9244a and the second conductive film 9244b, respectively. . In addition, the flexible circuit board 924a is disposed on a lower surface 9242b of the transparent substrate 9242, and is electrically connected to the electrodes 9242a and the processing body 930. In other words, the flexible circuit board 924a extends from under the entire touch sensing device 924. However, in other embodiments, the flexible circuit board 924a may also extend from the first conductive film 9244a and the transparent substrate 9242 without passing through the electrode 9242a. Since the flexible circuit board 924a extends from below the touch sensing device 924, the thickness of the entire electronic device can be further reduced. As described above, the creation can determine the types of tools that are wheeled into the tool, and convert the corresponding user interface according to the type of tool, or perform various preset functions in different ways. In this way, not only is there a way to quickly convert different types of user interfaces, but also to allow users to hide and operate in a more convenient manner, thereby improving the efficiency and convenience of the system. M3 3 3 606 96-11-29 Although the present invention has been disclosed in the above preferred embodiments, it is not intended to limit the present invention, and any person having ordinary knowledge in the technical field is not in the spirit and scope of the present invention. Within the scope of this patent, the scope of protection of this creation shall be subject to the definition of the scope of the patent application. BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is a flow chart showing a method of staying in a user interface according to an embodiment of the present invention. 2A through 20 are block diagrams of a handheld device of a convertible user interface in accordance with an embodiment of the present invention. 3A and 3B are schematic diagrams showing the contact area of an input tool according to an embodiment of the present invention. 4A-4C are flow charts of an input tool type identification method according to an embodiment of the present invention. FIG. 5 is a flow chart of an input tool type identification method according to another embodiment of the present invention. 6 and 7 are schematic diagrams of a user interface of a handheld device in accordance with an embodiment of the present invention. 8A through 8C are flowcharts showing the operation method of the user & face according to an embodiment of the present invention. 9A is an exploded view of an electronic device in accordance with an embodiment of the present invention. 9B is a cross-sectional view of the electronic device of FIG. 9A. 9C is a cross-sectional view of the touch sensing device of FIG. 9A. 22 M333606 96-11-29 [Explanation of main component symbols] 110-130: Each step 210 of the operation method of the user interface described in one embodiment of the present invention. · Display 220_223: Touch sensing device • 23〇·· Processor 240'·Resistive Sensor Lu 250: Capacitive Sensor 26〇: Temperature Sensor 270: Image Capture Device 410-470, 510-560: Types of Input Tools as Illustrated in the Creation Example Each step 600, 700 of the identification method: user interface 810-880: each step 910 of the operation method of the user interface described in one embodiment of the present invention: housing 910a: opening 920: touch display 920a: Touch sensing plane 922: display 924: touch sensing device 924a: flexible circuit board 9242: transparent substrate 9242a: electrode 23 96-11-29 M333606 9242b: lower surface 9244a · · first conductive film 9244b · · second conductive film 9246 ··protective layer 9248: spacer 930: processor t-1, t-2, t_3, t-4: contact between the input tool and the touch sensing device

twenty four

Claims (1)

M333606 96-11-29 IX. Patent application scope: An electronic device, comprising: a housing having an opening; a touch display disposed in the housing, the opening exposing a portion of the touch display; And the touch display is configured to receive an input operation, wherein the touch display display has a touch sensing plane; —a A processor coupled to the touch display, wherein the processor determines a user interface displayed by the “touch” display. The electronic device of claim 1, wherein the method for determining the user interface displayed by the touch display comprises: f processor arranging the type of the wheel tool, and according to the type of the tool The difference is to convert the corresponding user interface. 3. The electronic device of claim 1, wherein the touch control display further comprises: ‘the display is disposed in the outer casing _ And the touch sensing device is disposed in the housing and is located above the display, wherein the display and the touch sensing device are coupled to the processor. 4. The electronic device of claim 3, wherein the sensing device comprises: a transparent substrate; a first conductive film; at least one spacer; - a second conductive film; and 25 M3 3 3 606 96-11-29 A protective layer with the touch sensing plane. The electronic device of claim 4, wherein the touch sensing device further comprises: a plurality of electrodes extending through the transparent substrate and electrically connected to the first conductive film or the second conductive film respectively And a flexible circuit board disposed on a lower surface of the transparent substrate and electrically connected to the electrodes and the processor. 6. The electronic device of claim 3, wherein the touch sensing device comprises a resistive sensor. 7. The electronic device of claim 3, wherein the touch sensing device comprises a capacitive sensor. 8. The electronic device of claim 3, wherein the touch sensing device comprises a temperature sensor. 9. The electronic device of claim 3, wherein the touch sensing device comprises an image capturing device for capturing an image of the second tool. The electronic device of claim 1, wherein the input tool comprises a stylus or a user's finger. An electronic device comprising: an outer casing having an opening; - a touch display n' disposed on the external correction, and the gateway exposing the heart-shaped display to the touch display, and the touch display is Receiving an input, and an operation, wherein the touch display has a touch sensing plane; 26 M333606 96-11-29 a processor coupled to the touch display for determining the input tool kind. 12. The electronic device of claim 11, wherein the processor further comprises determining a user interface displayed by the touch display according to the type of the tool. The electronic device of claim 11, wherein the touch display further comprises: A display is disposed in the housing; and a touch sensing device is disposed above the display and located in the opening, wherein the display and the touch sensing device are lightly connected to the processor. The electronic device of claim 13, wherein the touch sensing device comprises: a transparent substrate; a first conductive film; at least one spacer; a second conductive film; and a protective layer , with - the touch feels the plane. The electronic device of claim 14, wherein the touch sensing device further comprises: an eight-day electrode extending through the transparent substrate and electrically connected to the first conductive film or the first And a flexible circuit board disposed on a lower surface of the transparent substrate and electrically connected to the electrodes and the processor. The electronic device of claim 13, wherein the 27 M333606 96-11-29 touch sensing device comprises a resistive sensor. 17. The electronic device of claim 13, wherein the touch sensing device comprises a capacitive sensor. 18. The electronic device of claim 13, wherein the touch sensing device comprises a temperature sensor. 19. The electronic device of claim 13, wherein the touch sensing device comprises an image capturing device for capturing an image comprising the input tool. 20. The electronic device of claim 11, wherein the input tool comprises a stylus or a user's finger. 28