WO2019218588A1 - 触控基板和触控显示面板 - Google Patents
触控基板和触控显示面板 Download PDFInfo
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- WO2019218588A1 WO2019218588A1 PCT/CN2018/110693 CN2018110693W WO2019218588A1 WO 2019218588 A1 WO2019218588 A1 WO 2019218588A1 CN 2018110693 W CN2018110693 W CN 2018110693W WO 2019218588 A1 WO2019218588 A1 WO 2019218588A1
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- G—PHYSICS
- G06—COMPUTING OR CALCULATING; COUNTING
- G06F—ELECTRIC DIGITAL DATA PROCESSING
- G06F3/00—Input arrangements for transferring data to be processed into a form capable of being handled by the computer; Output arrangements for transferring data from processing unit to output unit, e.g. interface arrangements
- G06F3/01—Input arrangements or combined input and output arrangements for interaction between user and computer
- G06F3/03—Arrangements for converting the position or the displacement of a member into a coded form
- G06F3/041—Digitisers, e.g. for touch screens or touch pads, characterised by the transducing means
- G06F3/0412—Digitisers structurally integrated in a display
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- G—PHYSICS
- G06—COMPUTING OR CALCULATING; COUNTING
- G06F—ELECTRIC DIGITAL DATA PROCESSING
- G06F3/00—Input arrangements for transferring data to be processed into a form capable of being handled by the computer; Output arrangements for transferring data from processing unit to output unit, e.g. interface arrangements
- G06F3/01—Input arrangements or combined input and output arrangements for interaction between user and computer
- G06F3/03—Arrangements for converting the position or the displacement of a member into a coded form
- G06F3/041—Digitisers, e.g. for touch screens or touch pads, characterised by the transducing means
- G06F3/044—Digitisers, e.g. for touch screens or touch pads, characterised by the transducing means by capacitive means
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- G—PHYSICS
- G06—COMPUTING OR CALCULATING; COUNTING
- G06F—ELECTRIC DIGITAL DATA PROCESSING
- G06F2203/00—Indexing scheme relating to G06F3/00 - G06F3/048
- G06F2203/041—Indexing scheme relating to G06F3/041 - G06F3/045
- G06F2203/04111—Cross over in capacitive digitiser, i.e. details of structures for connecting electrodes of the sensing pattern where the connections cross each other, e.g. bridge structures comprising an insulating layer, or vias through substrate
Definitions
- the present application relates to the field of display, and in particular to a touch display panel of a display device and a touch substrate on the touch display panel.
- a touch substrate includes a touch detection area and a sensing detection area; the touch detection area is provided with a touch electrode, the touch electrode is used for recognizing the touch signal; and the sensing detection area is provided with a sensing electrode and a sensing electrode Used to identify environmental signals.
- a touch display panel includes a display panel; the touch substrate is disposed on the display panel, and includes a touch detection area and a sensing detection area; the touch detection area is provided with a touch electrode, and the touch electrode is used for recognizing the touch Signal; the sensing detection area is provided with a sensing electrode, and the sensing electrode is used to identify an environmental signal.
- FIG. 1 is a schematic structural view of a touch substrate in an embodiment
- FIG. 2 is a schematic structural view of a touch substrate in an embodiment
- FIG. 3 is a schematic structural diagram of a touch electrode in a touch detection area in an embodiment
- FIG. 4 is a schematic structural view of a sensing electrode in a sensing detection area in one embodiment
- FIG. 5 is a schematic structural view of a sensing electrode in a sensing detection region in another embodiment
- FIG. 6 is a schematic structural view of a sensing electrode in a sensing detection region in still another embodiment
- FIG. 7 is a schematic structural diagram of a touch display panel in an embodiment
- FIG. 8 is a schematic structural diagram of a touch display panel in another embodiment.
- a touch substrate 100 is provided.
- the touch substrate 100 includes a touch detection area 110 and a sensing detection area 120 .
- the touch detection area 110 and the sensing detection area 120 do not overlap.
- FIG. 1 and FIG. 2 show two arrangement modes of the two areas, which are only used to describe the relationship between the two areas, and are not used for limitation. The specific location of the two areas.
- the touch detection area 110 is provided with a touch electrode 111
- the touch electrode 111 includes a touch sensing electrode 112 and a touch driving electrode 114, wherein the touch sensing electrode
- the touch driving electrode 114 and the touch driving electrode 114 can be made of an ITO (Indium Tin Oxide) film, and the positions of the touch sensing electrode 112 and the touch driving electrode 114 can be interchanged.
- a sensing capacitance is formed at the intersection of the touch sensing electrode 112 and the touch driving motor 114.
- the touch sensing electrode 112 and the touch driving motor 114 are electrically connected to the signal detecting chip through the signal line, and the signal detecting chip can determine the touched position on the touch substrate by detecting the change of the capacity of the sensing capacitor and calculate the position thereof.
- the specific coordinates are used to identify the touch signal.
- the sensing detection area 120 is provided with a sensing electrode, which is similar to the touch electrode and is also a bulk electrode, and is also electrically connected to the signal detecting chip through the signal line.
- the sensing electrode can sense a changing environmental signal such as an ambient light signal or a distance signal, and convert the environmental signal into an electrical signal, and then conduct the electrical signal to the signal detecting chip through the signal line.
- the signal detecting chip can identify the category and strength of the environmental signal by comparing the signals, and guide the display device to perform corresponding actions by using the detection result, for example, guiding the display device to automatically adjust the display brightness of the display panel or automatically adjusting the microphone volume. and many more.
- the touch substrate is provided with different detection areas on one substrate, and the touch electrodes and the sensing electrodes are respectively disposed on different detection areas, so that the same touch substrate can recognize the touch signal and the environment signal.
- the space of the touch substrate is fully utilized, which saves space for the environment sensor, and the narrow frame design of the display panel is easy to implement.
- the sensing detection area 120 is located at one side of the touch detection area 110, and the touch detection area 110 and the sensing detection area 110 are disposed first.
- the potential line 130 is fixed.
- the first fixed potential line 130 functions to shield the signal transmission between the touch electrode and the sensing electrode, and the shape may not be a regular straight line or curve as shown in FIG. 1 or FIG. 2, but the first fixed
- the potential line 130 must completely separate the two regions to block signal interference from different electrodes in the two regions.
- the sensing electrodes disposed in the sensing detection area 120 are the distance sensing electrodes 121, and the distance sensing electrodes 121 are arranged in the same manner as the touch electrodes 111. Also included are the criss-crossing sensing electrodes and driving electrodes, but the single sensing electrodes 122 and the single driving electrodes 124 from the sensing electrodes 121 are slightly larger in size than the single sensing electrodes 112 and the single driving electrodes 114 of the touch electrodes 111 and can be arranged only A layer of electrodes is placed.
- the size of the single sensing electrode 122 and the single driving electrode 124 of the sensing electrode 121 may be increased by more than 30% than the size of the single sensing electrode 112 and the single driving electrode 114 of the touch electrode 111.
- the amount of change in the capacitance signal detected by the sensing electrode 121 is increased, and the distance between the human body and the display device can be effectively detected.
- the human body electric field and the distance sensing electrode 121 form a coupling capacitor, and the distance sensing electrode 121 can sense the distance between the human body and the display device through the variation of the coupling capacitance.
- the distance signal is converted into a corresponding electrical signal and then transmitted to the signal detecting chip, and the signal detecting chip can identify the distance between the human body and the display device through the signal comparison and guide the display device to perform corresponding actions.
- the distance sensing electrode may affect the transmittance of light to some extent, so the distance from the sensing electrode may bypass the light transmitting position of the optical device.
- the sensing electrode disposed in the sensing detection area 120 is an ambient light sensing electrode 125
- the ambient light sensing electrode 125 is made of a transparent photosensitive material, and the photosensitive material is specifically It may be aluminum doped ITO (Indium Tin Oxide) or other metal doped oxide.
- the ambient light sensing electrode 125 is arranged differently from the touch electrode 111.
- the ambient light sensing electrode 125 generally includes a monolithic electrode 126 disposed on the lower layer and an interdigitated electrode disposed on the upper layer.
- the lower monolithic electrode 126 is cut into different regions to increase the detection accuracy of the ambient light sensing electrode 125, and can also function as a conduction signal.
- the comb-shaped electrode 128 disposed on the upper layer may have other shapes as long as it can function to cut the monolithic electrode 126 and conduct a signal, and the shape in the figure is only a schematic diagram and is not limited thereto. .
- the ambient light sensing electrode 125 can convert the induced optical signal into a corresponding electrical signal and then transmit the signal to the signal detecting chip, and the signal detecting chip can be compared by the signal. Identifying changes in light intensity in the environment in which the display device is located and directing the display device to perform corresponding actions.
- the ambient light sensing electrodes 125 may be arranged in one or more sets, and the positions thereof are set to bypass the light transmitting position of the optical device.
- the sensing electrodes disposed in the sensing detection region 120 are a distance sensing electrode 121 and an ambient light sensing electrode 125, wherein the distance sensing electrode 121 and the ambient light sensing electrode are A second fixed potential line 140 is disposed between the electrodes 125.
- the second fixed potential line 140 functions to shield the signal transmission between the distance sensing electrode 121 and the ambient light sensing electrode 125, and the shape may not be The regular straight line as in Figure 6, but the second fixed potential line 140 must completely separate the two electrodes to block signal interference between the two electrodes.
- the distance sensing electrode 121 is arranged in the same manner as the touch electrode 111, and includes the vertical and horizontal sensing electrodes and the driving electrodes, but the electrode size of the sensing electrode 121 is slightly larger than the touch electrode.
- the size of 111 can be arranged with only one layer of electrodes.
- the signal detecting chip can recognize the distance between the human body and the display device through the signal comparison and guide the display device to perform corresponding actions.
- the ambient light sensing electrode 125 is made of a transparent photosensitive material, which may be aluminum doped ITO or other metal doped oxide.
- the ambient light sensing electrode is arranged differently from the touch electrode.
- the present invention includes a monolithic electrode disposed in the lower layer and a comb-shaped electrode disposed in the upper layer, wherein the monolithic electrode disposed in the lower layer is doped with metal, and the comb-shaped electrode disposed in the upper layer is not doped with metal. .
- the ambient light sensing electrode can convert the sensed light signal into a corresponding electrical signal and then transmit it to the signal detecting chip, and the signal detecting chip can identify the display device by signal comparison.
- the light intensity of the environment changes and guides the display device to perform the corresponding action.
- a touch display panel 200 is further provided.
- the touch display panel 200 includes a display panel 210 , a touch substrate 220 , and a binding area through the touch substrate.
- the signal detecting chip 230 is disposed on the touch display panel 200.
- the touch substrate 220 is disposed on the display panel 210.
- the touch substrate 220 includes a touch detection area and a sensing detection area.
- the solid line of the inner frame in the figure indicates the shape of the touch substrate 220
- the dotted line in the inner frame in the figure indicates the boundary line between the touch detection area and the sensing detection area.
- the size of the touch substrate 220 may be the same as the size of the display panel 210. It may also be slightly smaller than the size of the display panel 210, and the shape in the figure is only a schematic and is not intended to be a limitation.
- the touch detection area is provided with a touch electrode, and the touch electrode is electrically connected to the signal detection chip 230 through a signal line, and the signal detection chip 230 determines the touched position by the capacitance change of the capacitance formed by the criss-crossing touch electrodes.
- the sensing detection area is provided with a sensing electrode, and the sensing electrode is also electrically connected to the signal detecting chip 230 through the signal line, and the signal detecting chip 230 is converted by reading the sensing electrode.
- the electrical signal determines the type and strength of the environmental signal, and directs the display device to perform corresponding actions, such as instructing the display device to automatically adjust the display brightness of the display panel or automatically adjust the microphone volume, and the like.
- the display panel 210 includes a display area 211 and a non-display area 212.
- the touch detection area 110 of the touch substrate 220 is disposed on the display area 211
- the sensing detection area 120 of the touch substrate 220 is disposed on the non-display area 212 .
- the display area 211 of the display panel can be provided with a touch function, and the space of the non-display area 212 can be fully utilized, thereby reducing the reserved position of the placed components, thereby realizing the touch display panel 200.
- Narrow border design design.
- the non-display area 212 may include a frame area 2121 disposed around the display area and a groove area 2122 disposed on one side of the display area.
- the sensing detection area 120 may be disposed in the frame area 2121. Or on the recessed area 2122. Specifically, as shown in FIG. 7 , when the non-display area 212 of the display panel includes only the bezel area 2121 , the sensing detection area 120 may be disposed on the bezel area 2121 . Preferably, the sensing detection area 120 may be disposed on the upper frame. The optical component on the upper frame is avoided on the area 2121; as shown in FIG.
- the sensing detection area 120 can be disposed on the frame. Region 2121 and/or recess region 2122. Preferably, the sensing detection region 120 can be disposed on the recessed region 2122 and avoids the position of the optical components on the recessed region 2122. With such an arrangement, the functions of distance detection and ambient light detection can be integrated on the touch display panel 200, making the entire display device more intelligent.
- the sensing detection region 120 is disposed in a bezel area or a groove area of the non-display area 212, or a boundary position of the bezel area and the groove area, and a non-display area phase of the sensing detection area is disposed.
- the light transmittance is relatively high, which can facilitate the sensing electrode to more accurately detect changes in the surrounding environment.
- the recessed region is obtained by etching the TFT array of the display panel and the oxide film of each layer, and no pixel unit is disposed in the recessed region, and the corresponding base substrate and the package substrate are corresponding to the recessed region. No cutting is required, so the groove area is made with low difficulty and good light transmittance.
- the display panel 210 can be a glass display panel or a flexible display panel.
- the touch substrate 220 is attached to the package glass of the display panel 210 and is configured together with the display panel 210.
- the touch substrate 220 is attached to the flexible encapsulation layer of the display panel 210, and forms a flexible touch display panel 200 together with the display panel 210.
- the touch substrate 220 can also be directly used as a package cover of the display panel 210, and the touch display panel 200 can be either rigid or flexible.
- the touch detection area 110 of the touch panel 220 is disposed on the display area 211, and the sensing detection area is disposed on the non-display area 212, thereby realizing the effect of integrating the sensing element on the display panel 210.
- the slotted space or the border of the display panel is reduced, so that the display panel 210 can easily realize the narrow bezel design; at the same time, the function of the touch display panel 200 is more intelligent and integrated, which is the development trend of the touch display panel 200 in the future. .
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Abstract
一种触控基板(100),包括触控检测区域(110)和传感检测区域(120);触控检测区域(110)设置有触控电极(111),触控电极(111)用于识别触控信号;传感检测区域(120)设置有传感电极(121),传感电极(121)用于识别环境信号。以及一种触控显示面板(200),包括显示面板(210)和上述触控基板(100)。
Description
本申请要求于2018年5月14日提交的中国发明专利申请201810453395.9(名称为触控基板和触控显示面板)的优先权,将其全部内容整体并入本文。
本申请涉及显示领域,特别是涉及显示装置的触控显示面板和触控显示面板上的触控基板。
随着显示装置产品的不断更新迭代,大屏幕的显示装置越来越受到用户的青睐,随之而来的是显示面板的外部结构和内部结构的不断推陈出新。现今,显示面板的设计都在追求窄边框的显示效果,以期为用户带来更强烈的视觉冲击。但是,在显示面板的实际设计过程当中,通常都会在面板的顶端保留有一定的预留空间,以放置摄像头、光学传感器、距离传感器等元器件,这会导致显示面板的预留空间过大,从而影响到显示面板的窄边框设计。
发明内容
一种触控基板,包括触控检测区域和传感检测区域;触控检测区域设置有触控电极,触控电极用于识别触控信号;传感检测区域设置有传感电极,传感电极用于识别环境信号。
一种触控显示面板,包括显示面板;触控基板,设置于显示面板上,包括触控检测区域和传感检测区域;触控检测区域设置有触控电极,触控电极用于识别触控信号;传感检测区域设置有传感电极,传感电极用于识别环境信号。
图1为一个实施例中的触控基板的结构示意图;
图2为一个实施例中的触控基板的结构示意图;
图3为一个实施例中的触控检测区域内触控电极的结构示意图;
图4为一个实施例中的传感检测区域内传感电极的结构示意图;
图5为另一个实施例中的传感检测区域内传感电极的结构示意图;
图6为又一个实施例中的传感检测区域内传感电极的结构示意图;
图7为一个实施例中的触控显示面板的结构示意图;
图8为另一个实施例中的触控显示面板的结构示意图。
为使本申请的上述目的、特征和优点能够更加明显易懂,下面结合附图对本申请的具体实施方式做详细的说明。在下面的描述中阐述了很多具体细节以便于充分理解本申请。但是本申请能够以很多不同于在此描述的其它方式来实施,本领域技术人员可以在不违背本申请内涵的情况下做类似改进,因此本申请不受下面公开的具体实施例的限制。
在一个实施例中,如图1和图2所示,提供了一种触控基板100,该触控基板100包括触控检测区域110和传感检测区域120。其中,触控检测区域110和传感检测区域120没有交叠,图1和图2示出了两个区域的两种设置方式,只用于说明两个区域之间的关系,并不用于限定两个区域的具体位置。
在本实施例中,如图3所示,触控检测区域110设置有触控电极111,触控电极111包括纵横交错的触控感应电极112和触控驱动电极114,其中,触控感应电极112和触控驱动电极114可以由ITO(Indium Tin Oxide,铟 锡氧化物)薄膜制成,且触控感应电极112和触控驱动电极114的位置可以互换。如图3中灰色阴影所示,在触控感应电极112和触控驱动电机114的交叠处会形成感应电容。进一步的,触控感应电极112和触控驱动电机114通过信号线与信号检测芯片电连接,信号检测芯片通过检测感应电容的容量变化即可确定触控基板上被触碰的位置并计算出其具体坐标,以此识别触控信号。
在本实施例中,传感检测区域120设置有传感电极,传感电极与触控电极类似,也是块状电极,并且同样通过信号线与信号检测芯片电连接。传感电极可以感应到不断变化的环境信号如环境光信号或距离信号,并将环境信号转换为电学信号,继而通过信号线将电学信号传导给信号检测芯片。进一步的,信号检测芯片通过信号比对即可识别出环境信号的类别和强弱,并通过检测结果指导显示装置进行相应的动作,例如指导显示装置自动调整显示面板的显示亮度或自动调整麦克风音量等等。
上述触控基板,通过在一个基板上设置不同的检测区域,并在不同的检测区域上分别设置触控电极和传感电极,使同一个触控基板既可以识别触控信号也可以识别环境信号,充分利用了触控基板的空间,节约了环境传感器的放置空间,使显示面板的窄边框设计易于实现。
在一个实施例中,如图1和图2所示,传感检测区域120位于触控检测区域110的一侧,且触控检测区域110与传感检测区域110的相邻处设置有第一固定电位线130。在本实施例中,第一固定电位线130的作用在于屏蔽触控电极和传感电极之间的信号传递,其形状可以不是如图1或图2中规则的直线或曲线,但第一固定电位线130须将两个区域完全的分隔开,以阻隔 两个区域内的不同电极的信号干扰。
在一个实施例中,如图4所示,传感检测区域120内设置的传感电极为距离传感电极121,距离传感电极121的排布方式与触控电极111的排布方式相同,同样包括了纵横交错的感应电极和驱动电极,但距离传感电极121的单个感应电极122和单个驱动电极124尺寸略大于触控电极111的单个感应电极112和单个驱动电极114尺寸且可以只排布一层电极。进一步的,距离传感电极121的单个感应电极122和单个驱动电极124的尺寸可以比触控电极111的单个感应电极112和单个驱动电极114的尺寸增加30%以上。电极面积增大以后,距离传感电极121所检测到的电容信号变化量增大,可以有效的检测出人体与显示装置的距离变化。具体的,当人体靠近传感检测区域120时,人体电场与距离传感电极121会形成一个耦合电容,距离传感电极121可以通过该耦合电容的变化量感测人体与显示装置之间的距离,并将该距离信号转换成对应的电信号后传导给信号检测芯片,信号检测芯片通过信号比对即可识别出人体与显示装置的距离远近并指导显示装置进行相应的动作。在本实施例中,距离传感电极可能会在一定程度上影响光的透过率,所以距离传感电极的设置可以绕开光学器件的透光位置。
在一个实施例中,如图5所示,传感检测区域120内设置的传感电极为环境光传感电极125,该环境光传感电极125由透明的感光材料制成,该感光材料具体可以是铝掺杂的ITO(Indium Tin Oxide,铟锡氧化物)或其他金属掺杂氧化物。另外,环境光传感电极125的排布方式与触控电极111不同,如图5所示,环境光传感电极125一般包括设置在下层的一整块电极126以及设置在上层的交叉放置的梳齿状电极128,其中,设置于下层的整块电 极126做金属掺杂,并用于检测显示装置所在环境光的强度变化;设置于上层的梳齿状电极128可以不做金属掺杂,并用于将下层的整块电极126切割为不同的区域,以增加环境光传感电极125的检测精度,同时也可以起到传导信号的作用。进一步的,设置于上层的梳齿状电极128也可以为其他形状,只要能够起到切割整块电极126并传导信号的作用即可,图中的形状只作为一种示意,不作为一种限定。具体的,当显示装置所在的环境光线强度发生变化时,环境光传感电极125可以把感应到的光信号转换为对应的电信号后传导给信号检测芯片,信号检测芯片通过信号比对即可识别出显示装置所在环境的光强度变化并指导显示装置进行相应的动作。在本实施例中,环境光传感电极125可以设置为一套或多套,且其设置的位置需绕开光学器件的透光位置。
在一个实施例中,如图6所示,传感检测区域120内设置的传感电极为距离传感电极121和环境光传感电极125,其中,距离传感电极121和环境光传感电极125之间设置有第二固定电位线140,在本实施例中,第二固定电位线140的作用在于屏蔽距离传感电极121和环境光传感电极125之间的信号传递,其形状可以不是如图6中规则的直线,但第二固定电位线140须将两种电极完全的分隔开,以阻隔两种电极之间的信号干扰。
进一步的,上述距离传感电极121的排布方式与触控电极111的排布方式相同,同样包括了纵横交错的感应电极和驱动电极,但距离传感电极121的电极尺寸略大于触控电极111的尺寸且可以只排布一层电极。当人体靠近传感检测区域120时,人体电场与距离传感电极121会形成一个耦合电容,距离传感电极121可以通过该耦合电容的变化量感测人体与显示装置之间的 距离,并将该距离信号转换成对应的电信号后传导给信号检测芯片,信号检测芯片通过信号比对即可识别出人体与显示装置的距离远近并指导显示装置进行相应的动作。上述环境光传感电极125由透明的感光材料制成,该感光材料具体可以是铝掺杂的ITO或其他金属掺杂氧化物,环境光传感电极的排布方式与触控电极不同,其具体包括设置在下层的一整块电极以及设置在上层的交叉放置的梳齿状电极,其中,设置于下层的整块电极做金属掺杂,设置于上层的梳齿状电极不做金属掺杂。当显示装置所在的环境光线强度发生变化时,环境光传感电极可以把感应到的光信号转换为对应的电信号后传导给信号检测芯片,信号检测芯片通过信号比对即可识别出显示装置所在环境的光强度变化并指导显示装置进行相应的动作。
在至少一个实施例中,如图7和图8所示,还提供了一种触控显示面板200,该触控显示面板200包括显示面板210、触控基板220以及通过触控基板绑定区设置于触控显示面板200上的信号检测芯片230。其中,触控基板220设置于显示面板210上,触控基板220包括触控检测区域和传感检测区域。如图7和图8所示,图中内边框的实线表示触控基板220的形状,图中内边框中的虚线表示触控检测区域和传感检测区域的边界线。为了方便理解,图7和图8中所示的触控基板220的面积是小于显示面板210的,但在实际应用中,触控基板220的尺寸可以与显示面板210的尺寸是同样大的,也可以比显示面板210的尺寸略小一些,图中的形状只作为一种示意,不作为一种限定。具体的,触控检测区域内设置有触控电极,触控电极通过信号线与信号检测芯片230电连接,信号检测芯片230通过纵横交错的触控电极形成的电容的容量变化确定被触摸的位置并计算出具体坐标,以此识别触控信号; 传感检测区域内设置有传感电极,传感电极同样通过信号线与信号检测芯片230电连接,信号检测芯片230通过读取传感电极转换的电信号确定环境信号的类别和强弱,并指导显示装置进行相应的动作,例如指导显示装置自动调整显示面板的显示亮度或自动调整麦克风音量等等。
在至少一个实施例中,如图7和图8所示,显示面板210包括显示区域211和非显示区域212。在这些实施例中,触控基板220的触控检测区域110设置于显示区域211上,触控基板220的传感检测区域120设置于非显示区域212上。通过这样的设置,可以使显示面板的显示区域211具备触控功能,而非显示区域212的空间也可被充分利用,减少了放置元器件的预留位置,从而实现了触控显示面板200的窄边框设计。
在一个实施例中,图8所示,非显示区域212可以包括设置于显示区域四周的边框区2121以及设置于显示区域一侧的凹槽区2122,传感检测区域120可以设置于边框区2121或凹槽区2122上。具体的,如图7所示,当显示面板的非显示区域212只包括边框区2121时,传感检测区域120可以设置在边框区2121上,优选的,传感检测区域120可以设置在上边框区2121上并避开上边框上的光学元器件;如图8所示,当显示面板的非显示区域212既包括边框区2121又包括凹槽区2122时,传感检测区域120可以设置在边框区2121和/或凹槽区2122上。优选的,传感检测区域120可以设置在凹槽区2122上并避开凹槽区2122上的光学元器件的位置。通过这样的设置,可以将距离检测和环境光检测的功能集成在触控显示面板200上,使整个显示装置更加智能化。
在至少一个实施例中,传感检测区域120设置在非显示区域212的边框 区或凹槽区,或者边框区和凹槽区的边界位置上,且设置了传感检测区域的非显示区相比于非显示区未设置传感检测区域的其他部分或显示区域来说,其透光率是相对比较高的,这样可以便于传感电极更为准确的检测到周围环境的变化。在本实施例中,凹槽区是将显示面板的TFT阵列和各层氧化膜进行刻蚀得到的,在凹槽区内不设置像素单元,另外,凹槽区对应的衬底基板和封装基板均无需进行切割,因而凹槽区制作难度低且透光率好。
在一个实施例中,显示面板210可以为玻璃显示面板或柔性显示面板,当显示面板210为玻璃显示面板时,触控基板220贴付于显示面板210的封装玻璃上,与显示面板210共同构成硬性的触控显示面板220;当显示面板210为柔性显示面板时,触控基板220贴付于显示面板210的柔性封装层上,与显示面板210共同构成柔性的触控显示面板200。另外,触控基板220也可直接用作显示面板210的封装盖板,其构成的触控显示面板200既可以是硬性也可以是柔性的。
上述显示面板200,通过将触控基板220的触控检测区域110设置于显示区域211上,传感检测区域设置于非显示区域212上,实现了在显示面板210上集成传感检测元件的效果。减少了显示面板的开槽空间或边框区间,使显示面板210易于实现窄边框设计;同时使触控显示面板200的功能更加智能化,集成度更高,是未来触控显示面板200的发展趋势。
以上所述实施例的各技术特征可以进行任意的组合,为使描述简洁,未对上述实施例中的各个技术特征所有可能的组合都进行描述,然而,只要这些技术特征的组合不存在矛盾,都应当认为是本说明书记载的范围。
以上所述实施例仅表达了本申请的几种实施方式,其描述较为具体和详 细,但并不能因此而理解为对发明专利范围的限制。应当指出的是,对于本领域的普通技术人员来说,在不脱离本申请构思的前提下,还可以做出若干变形和改进,这些都属于本申请的保护范围。因此,本申请专利的保护范围应以所附权利要求为准。
Claims (15)
- 一种触控基板,包括:触控检测区域,设置有用于识别触控信号的触控电极;及传感检测区域,与所述触控检测区域相邻,设置有用于识别环境信号的传感电极。
- 根据权利要求1所述的触控基板,其中,所述触控检测区域与所述传感检测区域的相邻处设置有第一固定电位线,所述第一固定电位线用于屏蔽所述触控电极和所述传感电极之间的信号传递。
- 根据权利要求2所述的触控基板,其中所述传感电极为距离传感电极,识别的所述环境信号为距离信号。
- 根据权利要求2所述的触控基板,其中所述传感电极为环境光传感电极,识别的所述环境信号为环境光信号。
- 根据权利要求2所述的触控基板,其中所述传感电极包括距离传感电极和/或环境光传感电极,则识别的所述环境信号为距离信号和/或环境光信号;所述距离传感电极和所述环境光传感电极之间设置有第二固定电位线,所述第二固定电位线用于屏蔽所述距离传感电极和所述环境光传感电极之间的信号传递。
- 根据权利要求3所述的触控基板,其中所述距离传感电极的尺寸大于所述触控电极的尺寸。
- 根据权利要求4所述的触控基板,其中所述光传感电极由透明的感光材料制成。
- 一种触控显示面板,包括:显示面板;及触控基板,设置于所述显示面板上,包括触控检测区域和传感检测区域;所述触控检测区域设置有用于识别触控信号的触控电极;所述传感检测区域设置有用于识别环境信号的传感电极。
- 根据权利要求8所述的触控显示面板,其中所述显示面板包括显示区域和非显示区域;所述触控检测区域设置于所述显示区域上,所述传感检测区域设置于所述非显示区域上。
- 根据权利要求9所述的触控显示面板,其中所述非显示区域包括设置于所述显示区域四周的边框区以及设置于所述显示区域一侧的凹槽区;所述传感检测区域设置于所述边框区上。
- 根据权利要求9所述的触控显示面板,其中所述非显示区域包括设置于所述显示区域四周的边框区以及设置于所述显示区域一侧的凹槽区;所述传感检测区域设置于所述凹槽区上。
- 根据权利要求9所述的触控显示面板,其中所述非显示区域包括设置于所述显示区域四周的边框区以及设置于所述显示区域一侧的凹槽区;所述传感检测区域设置于所述边框区和所述凹槽区上。
- 根据权利要求10所述的触控显示面板,其中所述设置了所述传感检测区域的所述边框的透光率大于所述显示区域的透光率。
- 根据权利要求11所述的触控显示面板,其中所述设置了所述传感检测区域的所述凹槽区的透光率大于所述显示区域的透光率。
- 根据权利要求8所述的触控显示面板,还包括与触控电极和传感电极均电连接的信号检测芯片。
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| US20160291766A1 (en) * | 2015-03-31 | 2016-10-06 | Synaptics Incorporated | Sensor array with split-drive differential sensing |
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