WO2015143773A1 - 一种基于触摸屏的档位参数调节方法及装置 - Google Patents

一种基于触摸屏的档位参数调节方法及装置 Download PDF

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Publication number
WO2015143773A1
WO2015143773A1 PCT/CN2014/078776 CN2014078776W WO2015143773A1 WO 2015143773 A1 WO2015143773 A1 WO 2015143773A1 CN 2014078776 W CN2014078776 W CN 2014078776W WO 2015143773 A1 WO2015143773 A1 WO 2015143773A1
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Prior art keywords
scale
touch
finger
current
interface
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PCT/CN2014/078776
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English (en)
French (fr)
Inventor
张兴杰
宫玥枚
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深圳麦科信仪器有限公司
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Publication of WO2015143773A1 publication Critical patent/WO2015143773A1/zh

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    • G—PHYSICS
    • G06—COMPUTING; CALCULATING OR 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
    • G06F3/048—Interaction techniques based on graphical user interfaces [GUI]
    • G06F3/0484—Interaction techniques based on graphical user interfaces [GUI] for the control of specific functions or operations, e.g. selecting or manipulating an object, an image or a displayed text element, setting a parameter value or selecting a range
    • G06F3/04847—Interaction techniques to control parameter settings, e.g. interaction with sliders or dials
    • G—PHYSICS
    • G06—COMPUTING; CALCULATING OR 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
    • G06F3/048—Interaction techniques based on graphical user interfaces [GUI]
    • G06F3/0487—Interaction techniques based on graphical user interfaces [GUI] using specific features provided by the input device, e.g. functions controlled by the rotation of a mouse with dual sensing arrangements, or of the nature of the input device, e.g. tap gestures based on pressure sensed by a digitiser
    • G06F3/0488—Interaction techniques based on graphical user interfaces [GUI] using specific features provided by the input device, e.g. functions controlled by the rotation of a mouse with dual sensing arrangements, or of the nature of the input device, e.g. tap gestures based on pressure sensed by a digitiser using a touch-screen or digitiser, e.g. input of commands through traced gestures

Definitions

  • the invention relates to the field of instrumentation, in particular to a method and a device for adjusting a gear position parameter based on a touch screen.
  • the adjustment of the instrument gear parameters mostly relies on mechanical knobs, buttons, and numeric keypads, such as the vertical gear position adjustment of the desktop oscilloscope, the horizontal time base adjustment of the oscilloscope, the frequency and amplitude input of the signal generator, The range of the spectrum analyzer and so on.
  • mechanical knobs and buttons have a limited life span, are also relatively easy to be injured or damaged, and are not easy to clean.
  • touch screen technology its application has become more and more extensive, and instrumentation is no exception.
  • the adjustment of the gear position parameters has not proposed an efficient and convenient adjustment method.
  • the technical problem to be solved by the present invention is that the adjustment of the above-mentioned gear position parameters in the prior art does not have the disadvantage of an efficient and convenient adjustment mode, and provides a touch screen-based parameter adjustment method capable of efficiently and conveniently adjusting the gear position parameters and Device.
  • the technical solution adopted by the present invention to solve the technical problem is: constructing a touch screen parameter adjustment method based on a touch screen, and setting a prompt icon on the parameter adjustment display interface; the method includes the following steps:
  • step B determining whether there is a touch operation on the touch screen, and if so, performing step B; otherwise, maintaining the current interface
  • step B determining whether the location of the touch operation is on the prompt icon, and if so, the prompt icon is automatically converted into a scale and performing step C; otherwise, entering the interface of the corresponding function or maintaining the current interface;
  • step C determines whether the finger or other touch tool leaves the scale, and if so, step D is performed; otherwise, step E is performed;
  • step D determines whether the time when the finger or other touch tool leaves the scale is greater than the set time, and if so, step F is performed; otherwise, step E is performed;
  • step E detects the current position of the finger or other touch tool on the scale, transmits its corresponding current scale parameter to the system for processing, and updates the interface, returning to step C;
  • the scale is automatically converted into the prompt icon.
  • the indicator rule is provided with an indication mark for indicating a scale parameter
  • the step E further includes:
  • the indicator mark or scale of E2 varies with the change of the position of the finger or other touch tool on the scale
  • E3 takes the scale indicated by the current position of the finger or other touch tool or the scale indicated by the indication mark as the current scale parameter, and transmits the current scale parameter to the system for processing, and updates the system interface.
  • the scale moves in a direction from the beginning end to the tail end or Pan along the direction from the trailing end to the beginning.
  • the current scale and the indication mark are moved to the center position of the scale.
  • the scale displayed by the scale on the parameter adjustment display interface is a local scale.
  • the present invention also relates to an apparatus for implementing the above-described touch screen-based gear position parameter adjustment method, wherein a prompt icon is disposed on the parameter adjustment display interface; the device includes:
  • a touch determining unit configured to determine whether there is a touch operation on the touch screen, and maintain the current interface when there is no touch operation;
  • a touch position determining unit configured to determine whether the location of the touch operation is on the prompt icon, and if yes, the prompt icon is automatically converted into a scale; otherwise, the interface of the corresponding function is entered or the current interface is maintained;
  • Leave determination unit used to determine whether a finger or other touch tool leaves the scale
  • a time judging unit configured to determine whether the time when the finger or other touch tool leaves the scale is greater than a set time
  • a position detection judging unit configured to detect a current position of the finger or other touch tool on the scale, transmit a corresponding current scale parameter to the system for processing, and update a system interface;
  • Scale conversion unit for automatically converting the scale into the prompt icon.
  • the indicator rule is provided with an indication mark for indicating a scale parameter
  • the position detection determination unit further comprises:
  • a position detecting module configured to detect a position of the finger or other touch tool on the scale
  • a position conversion module for causing the indicator mark or scale to change as the position of the finger or other touch tool on the scale changes
  • the processing module is configured to use the scale indicated by the current position of the finger or other touch tool or the scale indicated by the indicator mark as the current scale parameter, and transmit the current scale parameter to the system for processing, and update the system interface.
  • the scale moves along from the beginning end to the tail end.
  • the direction is translated or translated in a direction from the trailing end to the beginning.
  • the current scale and the indication mark are moved to the center position of the scale.
  • the scale displayed by the scale on the parameter adjustment display interface is a local scale.
  • the method and device for implementing the touch screen-based gear position parameter adjustment method of the present invention have the following beneficial effects: since the prompt icon is automatically converted into a ruler by touching the prompt icon on the parameter adjustment display interface, the finger or other touch tool leaves the ruler. When the time is less than the set time, the current position of the finger or other touch tool on the scale is detected, and the corresponding current scale parameter is transmitted to the system for processing, and the system interface is updated, thereby realizing the adjustment of the gear position parameter, No mechanical knobs or buttons are required, so it can adjust gear parameters efficiently and conveniently.
  • FIG. 1 is a flow chart of a method for adjusting a gear position parameter based on a touch screen according to an embodiment of the present invention
  • FIG. 2 is a specific flowchart of determining whether a time when a finger or other touch tool leaves the scale is greater than a set time in the embodiment
  • FIG. 3 is a schematic diagram showing a prompt icon displayed on a parameter adjustment display interface in the embodiment.
  • FIG. 4 is a schematic diagram of a prompt icon being touched in the embodiment
  • FIG. 5 is a schematic diagram of converting a prompt icon into a scale in the embodiment
  • FIG. 6 is a schematic diagram showing the scale of the current position indication of a finger or other touch tool in the embodiment as the current scale;
  • Figure 7 is a schematic view showing the scale indicated by the indication mark in the embodiment as the current scale
  • Figure 8 is a schematic view of the finger or other touch tool sliding to the beginning of the scale in the embodiment
  • Figure 9 is a schematic view showing the scales not shown in the embodiment moving to the scale one by one;
  • Figure 10 is a schematic view showing the movement of the final scale on the scale to the center of the scale in the embodiment
  • Figure 11 is a schematic view showing the structure of the apparatus in the embodiment.
  • FIG. 1 a flowchart of the touch screen based gear position parameter adjustment method is shown in FIG. 1 .
  • a prompt icon is set on the parameter adjustment display interface.
  • a prompt icon is displayed on the parameter adjustment display interface, and the prompt icon can display the current value and the indicator mark or other.
  • the current value displayed by the prompt icon is 100us.
  • the touch screen based gear position adjustment method comprises the following steps:
  • Step S01 determines whether there is a touch operation on the touch screen: in this step, it is determined whether there is a touch operation on the touch screen. If the result of the determination is yes, step S03 is performed; otherwise, step S02 is performed.
  • Step S02 maintains the current interface: if the result of the above step S01 is NO, the step is executed. In this step, the current interface (ie, the current parameter adjustment interface) is maintained.
  • Step S03 determines whether the position of the touch operation is on the prompt icon: if the result of the above step S01 is YES, the present step is executed. In this step, it is determined whether the location of the touch operation is on the prompt icon, and if the location of the touch operation is on the prompt icon, step S05 is performed; otherwise, step S04 is performed.
  • Step S04 enters the interface of the corresponding function or maintains the current interface: if the result of the above step S03 is no, that is, the position of the touch operation is not on the prompt icon, this step is performed. In this step, the interface of the corresponding function is entered or the current interface is maintained. Specifically, when the position of the touch operation is on other virtual buttons, the interface of the corresponding function is entered; when the position of the touch operation is in the blank area, the current interface is maintained. interface.
  • Step S05 prompts that the icon is automatically converted into a scale: if the result of the above step S03 is YES, that is, the prompt icon is touched, this step is performed.
  • FIG. 4 is a schematic diagram of the prompt icon being touched in the embodiment.
  • the prompt icon is automatically converted into a scale.
  • the scale in this embodiment is a horizontal scale. Of course, in other embodiments, it may also be a vertical scale.
  • the touch screen detects that there is a touch on the prompt icon, the prompt icon automatically elongates, displays the scale, and forms a scale.
  • the scale may be limited by the length, and the scale may not be completely displayed. That is to say, the scale displayed on the parameter adjustment display interface of the scale is a local scale.
  • step S6 is a schematic diagram of the prompt icon being converted into a scale in the embodiment. It is worth mentioning that after forming a ruler, the finger or other touch tool can briefly leave any position of the ruler again, or can slide directly on the ruler without leaving. After performing this step, go to step S06.
  • Step S06 determining whether the finger or other touch tool leaves the scale: in this step, determining whether the finger or other touch tool leaves the scale, that is, determining whether the finger or other touch tool is still touching the scale position, and if the result of the determination is yes, executing Step S08; otherwise, step S07 is performed.
  • Step S07 detects the current position of the finger or other touch tool on the scale, transmits the corresponding current scale parameter to the system for processing, and updates the system interface: if the result of the above step S06 is no, the step is executed. In this step, detecting the current position of the finger or other touch tool on the scale, transmitting the corresponding current scale parameter to the system for processing, and updating the system interface, regarding detecting the current position of the finger or other touch tool on the scale, Two implementation methods, which are described in detail later. After performing this step, return to step S06.
  • Step S08 determines whether the time when the finger or other touch tool leaves the scale is greater than the set time: if the result of the above step S06 is YES, the step is executed. In this step, it is determined whether the time when the finger or other touch tool leaves the scale is greater than the set time. If the time for the finger or other touch tool to leave the scale is greater than the set time, step S09 is performed; otherwise, the process returns to step S07.
  • the step S09 is automatically converted into a prompt icon: if the result of the above step S08 is YES, the step is executed.
  • the ruler is automatically converted into a prompt icon, that is, when the finger or other touch tool leaves the ruler for more than the set time, the ruler automatically retracts to become the original prompt icon.
  • FIG. 5 is a schematic diagram of the prompt icon being converted into a scale in the embodiment, such as the scale 1 in FIG. 5. In this way, the adjustment of the gear position parameter is realized, which does not require a mechanical knob or a button, so that the gear position parameter can be adjusted efficiently and conveniently.
  • the adjustment of the gear position parameter can be completed by the touch operation on the touch screen, which is more space-saving than the button and knob operation of the conventional oscilloscope, and the adjustment speed is faster and more efficient; at the same time, the mechanical button and the knob are omitted.
  • the hardware cost is reduced; due to the touch screen input mode, it is easy to learn and use, and easy to clean; it has a longer life than the mechanical buttons and knobs; since the mechanical buttons and knobs are omitted, the display area on the screen is occupied. Small, increasing the area of the display.
  • the indicator 1 is provided with an indication mark for indicating the scale parameter, such as the indication mark 2 in FIG.
  • step S07 can be further refined, and the refined flowchart is as shown in FIG. 2 .
  • step S07 further includes the following steps:
  • Step S71 detects the position of the finger or other touch tool on the scale: in this step, the position of the finger or other touch tool on the scale is detected.
  • Step S72 indicates that the mark or scale changes with the change of the position of the finger or other touch tool on the scale: in this step, the indication mark 2 or the scale 1 changes with the change of the position of the finger or other touch tool on the scale 1. That is to say, when the position of the finger or other touch tool on the scale 1 changes, the position of the indication mark 2 at the scale 1 also changes correspondingly or the scale on the scale 1 moves.
  • Step S73 using the scale indicated by the current position of the finger or other touch tool or the scale indicated by the indication mark as the current scale parameter, and transmitting the current scale parameter to the system for processing, updating the system interface: in this step, the finger or other touch
  • the scale indicated by the current position of the tool or the scale indicated by the indicator mark is used as the current scale parameter, and the current scale parameter is transmitted to the system for processing, and the system interface is updated.
  • the scale 1 when the position of the finger or other touch tool on the scale 1 changes, the position of the indication mark 2 changes accordingly, but the scale 1 does not move with the finger or other touch tool; Or when other touch tools are in a stopped state or in a sliding state, the scale indicated by the current position of the finger or other touch tool is the current scale, and the current scale parameter is transmitted to the system for processing; when the finger or other touch tool slides to the scale 1 At the beginning or the end, the scale 1 translates in a direction from the beginning to the end or in a direction from the tail to the beginning. That is to say, when a finger or other touch tool slides to the beginning of the scale 1 (as shown in FIG.
  • the scale 1 is translated in the direction from the beginning to the end, and the undisplayed scales are automatically moved to the ruler one by one.
  • 1 for example, a finger or other touch tool slides to the left end of the scale 1 (ie, the beginning), then the scale that is not displayed on the scale 1 will automatically appear from left to right, and the original scale on the scale 1 will automatically Moving from left to right, the scales displayed on the far right will be automatically hidden one by one.
  • the finger or other touch tool leaves the scale 1
  • the scale indicating the mark 2 or the finger or other touch tool is finally pointed to the final scale, and the final scale on the scale 1 is automatically moved to the center of the scale 1 (Fig. 10).
  • the current scale the scale when the finger or other touch tool finally leaves the scale 1
  • the indicator mark 2 move to the center position of the scale 1, so that this is the next time The gear position adjustment is ready.
  • the indicator 2 does not move at this time, and the scale scale follows the sliding of the finger or other touch tool, regardless of whether the finger or other touch tool is in The stop state is still in the slip state, and the scale indicated by the indication mark 2 is the current scale (as shown in FIG. 7), and the current scale parameter is transmitted to the system for processing.
  • the current scale parameters are transmitted to the system in real time, and the system interface is updated in real time as the scale parameters change. This allows the system interface to be consistent with the scale parameters in real time.
  • the indication mark is aligned with the scale by the principle of proximity; if the adjusted gear parameter allows the value between the two scales, the direct reading is performed. Indicates the value indicated by the marker. It is worth mentioning that in some cases of the embodiment, the indicator mark can also be omitted. At this time, the pointing of the finger or other touch tool is the indicated scale value, so although it is not so intuitive on the display, the indication is omitted. Marking, thus eliminating the need for research and development, saving resources and reducing R&D costs.
  • the device further relates to a device for implementing the above-mentioned touch screen-based gear position parameter adjustment method, and a schematic structural diagram thereof is shown in FIG. 11 .
  • a prompt icon is set on the parameter adjustment display interface.
  • the device includes a touch determination unit 1, a touch position determination unit 2, a departure determination unit 3, a time determination unit 4, a position detection determination unit 5, and a scale conversion unit 6; wherein the touch determination unit 1 is used to determine the touch screen Whether there is a touch operation, and the current interface is maintained when there is no touch operation; the touch position determining unit 2 is configured to determine whether the position of the touch operation is on the prompt icon, and if so, the prompt icon is automatically converted into a scale; otherwise, the interface of the corresponding function is entered. Or keep the current interface; due to the limited space size, the scale displayed on the scale can only display a part, that is, the scale displayed on the parameter adjustment display interface is the local scale.
  • the scale when it is desired to view a scale smaller than the scale displayed at the beginning of the scale, a finger or other touch tool is slid to the beginning of the scale, and the scale is translated in the direction from the beginning to the end,
  • the desired scales are automatically displayed one by one, and the scales at the end are hidden one by one; when you want to view a scale larger than the scale displayed at the end of the ruler, slide your finger or other touch tool to the end of the ruler.
  • the scale is translated along the direction from the tail end to the beginning, and the desired scale is automatically displayed one by one, and the scales at the beginning are hidden one by one.
  • the leaving determination unit 3 is configured to determine whether a finger or other touch tool is away from the scale; the time determining unit 4 is configured to determine whether a time when the finger or other touch tool leaves the scale is greater than a set time; the position detection determining unit 5 is configured to Detecting the current position of the finger or other touch tool on the scale, transmitting its corresponding current scale parameter to the system for processing, and updating the system interface; the scale conversion unit 6 is configured to automatically convert the scale into a prompt icon.
  • the adjustment of the gear position parameter can be completed by the touch operation on the touch screen, which is more space-saving than the button and knob operation of the conventional oscilloscope, and the adjustment speed is faster and more efficient; at the same time, the mechanical button and the knob are omitted.
  • the hardware cost is reduced; due to the touch screen input mode, it is easy to learn and use, and easy to clean; it has a longer life than the mechanical buttons and knobs; since the mechanical buttons and knobs are omitted, the display area on the screen is occupied. Small, increasing the area of the display.
  • the indicator is provided with an indication mark for indicating the scale parameter
  • the position detection determination unit 5 further includes a position detection module 51, a position conversion module 52, and a processing module 53.
  • the position detection module 51 is configured to detect a finger or the like. Touching the position of the tool on the scale; the position conversion module 52 is configured to cause the indicator mark or scale to change with changes in the position of the finger or other touch tool on the scale; the processing module 53 is for indicating the current position of the finger or other touch tool
  • the scale indicated by the scale or indicator is used as the current scale parameter, and the current scale parameter is transmitted to the system for processing, and the system interface is updated. When a finger or other touch tool leaves the ruler, the current scale and indicator mark move to the center of the scale, which prepares for the next gear parameter adjustment.
  • the prompt icon when a finger or other touch tool contacts the prompt icon, the prompt icon automatically extends to become a scale; during the opening of the scale, the scale pointed by the finger or other touch tool is the current scale, or the indicator mark The scale pointed to is the current scale; the current scale parameters are transmitted to the system in real time, and the system interface is updated in real time as the scale parameters change.
  • the indicator mark follows the finger or other touch tool movement (the indicator mark can also be omitted, the pointing of the finger or other touch tool is the indicated scale value), when the finger or other touch tool moves to the beginning (or the end) of the ruler,
  • the displayed scales will be moved one by one to the ruler; when the finger or other touch tool leaves, the current scale and indicator will move to the center of the ruler to prepare for the next adjustment; the ruler or other touch tool will leave for a while, the ruler will automatically Retracting becomes the original prompt icon, so that it is closed when the ruler is not used; since its operation is by touch operation, it is more space-saving than the mechanical button and knob operation, and its adjustment speed is faster and more efficient; Going to the mechanical buttons and knobs, the cost is lower, the life is longer, and the display area occupied on the screen is smaller, the size of the display area can be enlarged, and the touch screen input mode is easy to learn, easy to use, and easy to use. clean.

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Abstract

本发明提出了一种基于触摸屏的档位参数调节方法，包括如下步骤：判断触摸屏上是否有触摸，如是，执行下一步骤；否则，保持当前界面；判断触摸位置是否在提示图标上，如是，提示图标转换成标尺并执行下一步骤；否则，进入相应功能界面或保持当前界面；判断手指或者其他触摸工具是否离开标尺，如是，执行下一步骤；否则，检测手指或者其他触摸工具在标尺上的当前位置，将当前刻度参数传送到系统进行处理，更新系统界面，并返回；判断离开标尺的时间是否大于设定时间，如是，标尺转换成提示图标；否则，返回。本发明还涉及一种实现上述方法的装置。实施本发明的基于触摸屏的档位参数调节方法及装置，具有以下有益效果：操作简单、使用方便。

Description

一种基于触摸屏的档位参数调节方法及装置 技术领域
本发明涉及仪器仪表领域，特别涉及一种基于触摸屏的档位参数调节方法及装置。
 背景技术
长期以来，对于仪器档位参数的调节大多都依靠机械旋钮、按键、数字键盘进行，例如台式示波器的垂直档位调节、示波表的水平时基调节、信号发生器的频率与幅值输入、频谱分析仪的扫宽范围等等。但是，机械旋钮、按键都有使用寿命的限制，也比较容易受伤或者损坏，且不易清洁。随着触摸屏技术的发展及成熟，其应用也愈来愈广泛，仪器仪表也不例外。然而，对于档位参数的调节却没有提出高效、方便的调节方式。
 技术问题
本发明要解决的技术问题在于，针对现有技术的上述档位参数的调节没有高效、方便的调节方式的缺陷，提供一种能高效、方便地调节档位参数的基于触摸屏的参数调节方法及装置。
 技术解决方案
本发明解决其技术问题所采用的技术方案是：构造一种基于触摸屏的档位参数调节方法，在参数调节显示界面上设置有提示图标；所述方法包括如下步骤：
A判断所述触摸屏上是否有触摸操作，如是，执行步骤B；否则，保持当前界面；
B判断所述触摸操作的位置是否在所述提示图标上，如是，所述提示图标自动转换成一个标尺并执行步骤C；否则，进入相应功能的界面或保持当前界面；
C判断手指或者其他触摸工具是否离开所述标尺，如是，执行步骤D；否则，执行步骤E；
D判断所述手指或者其他触摸工具离开所述标尺的时间是否大于设定时间，如是，执行步骤F；否则，执行步骤E；
E检测所述手指或者其他触摸工具在所述标尺上的当前位置，将其对应的当前刻度参数传送到系统进行处理，并更新界面，返回步骤C；
F所述标尺自动转换成所述提示图标。
在本发明所述的基于触摸屏的档位参数调节方法中，所述标尺上设有用于指示刻度参数的指示标记，所述步骤E进一步包括：
E1检测所述手指或者其他触摸工具在所述标尺上的位置；
E2所述指示标记或标尺随所述手指或者其他触摸工具在所述标尺上位置的变化而变化；
E3将所述手指或者其他触摸工具当前位置所指示的刻度或指示标记所指示的刻度作为当前刻度参数，并将所述当前刻度参数传送到系统处理后，更新系统界面。
在本发明所述的基于触摸屏的档位参数调节方法中，当所述手指或者其他触摸工具滑动到所述标尺的始端或尾端时，所述标尺沿着从始端向尾端的方向进行平移或者沿着从尾端向始端的方向进行平移。
在本发明所述的基于触摸屏的档位参数调节方法中，所述手指或者其他触摸工具离开所述标尺后，当前刻度与所述指示标记移动至所述标尺的中心位置。
在本发明所述的基于触摸屏的档位参数调节方法中，所述标尺在所述参数调节显示界面上显示的刻度为局部刻度。
本发明还涉及一种实现上述基于触摸屏的档位参数调节方法的装置，在参数调节显示界面上设置有提示图标；所述装置包括：
触摸判断单元：用于判断所述触摸屏上是否有触摸操作，并在没有触摸操作时保持当前界面；
触摸位置判断单元：用于判断所述触摸操作的位置是否在所述提示图标上，如是，所述提示图标自动转换成一个标尺；否则，进入相应功能的界面或保持当前界面；
离开判断单元：用于判断手指或者其他触摸工具是否离开所述标尺；
时间判断单元：用于判断所述手指或者其他触摸工具离开所述标尺的时间是否大于设定时间；
位置检测判断单元：用于检测所述手指或者其他触摸工具在所述标尺上的当前位置，将其对应的当前刻度参数传送到系统进行处理，并更新系统界面；
标尺转换单元：用于使所述标尺自动转换成所述提示图标。
在本发明所述的实现上述基于触摸屏的档位参数调节方法的装置中，所述标尺上设有用于指示刻度参数的指示标记，所述位置检测判断单元进一步包括：
位置检测模块：用于检测所述手指或者其他触摸工具在所述标尺上的位置；
位置变换模块：用于使所述指示标记或标尺随所述手指或者其他触摸工具在所述标尺上位置的变化而变化；
处理模块：用于将所述手指或者其他触摸工具当前位置所指示的刻度或指示标记所指示的刻度作为当前刻度参数，并将所述当前刻度参数传送到系统处理后，更新系统界面。
在本发明所述的实现上述基于触摸屏的档位参数调节方法的装置中，当所述手指或者其他触摸工具滑动到所述标尺的始端或尾端时，所述标尺沿着从始端向尾端的方向进行平移或者沿着从尾端向始端的方向进行平移。
在本发明所述的实现上述基于触摸屏的档位参数调节方法的装置中，所述手指或者其他触摸工具离开所述标尺后，当前刻度与所述指示标记移动至所述标尺的中心位置。
在本发明所述的实现上述基于触摸屏的档位参数调节方法的装置中，所述标尺在所述参数调节显示界面上显示的刻度为局部刻度。
 有益效果
实施本发明的基于触摸屏的档位参数调节方法的方法及装置，具有以下有益效果:由于在参数调节显示界面通过触摸提示图标，提示图标自动转换成一个标尺，在手指或者其他触摸工具离开标尺的时间小于设定时间时，检测手指或者其他触摸工具在标尺上的当前位置，并将其对应的当前刻度参数传送到系统进行处理，并更新系统界面，这样就实现了档位参数的调节，其不需要机械的旋钮或按键，所以其能高效、方便地调节档位参数。
 附图说明
为了更清楚地说明本发明实施例或现有技术中的技术方案，下面将对实施例或现有技术描述中所需要使用的附图作简单地介绍，显而易见地，下面描述中的附图仅仅是本发明的一些实施例，对于本领域普通技术人员来讲，在不付出创造性劳动性的前提下，还可以根据这些附图获得其他的附图。
图1为本发明基于触摸屏的档位参数调节方法及装置一个实施例中方法的流程图；
图2为所述实施例中判断手指或者其他触摸工具离开标尺的时间是否大于设定时间的具体流程图；
图3为所述实施例中参数调节显示界面上显示提示图标的示意图；
图4为所述实施例中提示图标被触摸的示意图；
图5为所述实施例中提示图标转换成标尺的示意图；
图6为所述实施例中手指或者其他触摸工具当前位置指示的刻度为当前刻度的示意图；
图7为所述实施例中指示标记指示的刻度为当前刻度的示意图；
图8为所述实施例中手指或者其他触摸工具滑到标尺始端的示意图；
图9为所述实施例中未显示完的刻度逐个移动到标尺上的示意图；
图10为所述实施例中标尺上最终刻度移动到标尺中心位置的示意图；
图11为所述实施例中装置的结构示意图。
 本发明的实施方式
下面将结合本发明实施例中的附图，对本发明实施例中的技术方案进行清楚、完整地描述，显然，所描述的实施例仅仅是本发明一部分实施例，而不是全部的实施例。基于本发明中的实施例，本领域普通技术人员在没有作出创造性劳动前提下所获得的所有其他实施例，都属于本发明保护的范围。
在本发明基于触摸屏的档位参数调节方法及装置实施例中，其基于触摸屏的档位参数调节方法的流程图如图1所示。本实施例中，在参数调节显示界面上设置有提示图标，请参见图3，图3中，在参数调节显示界面上显示出了提示图标，提示图标可以显示当前数值与指示标记或者其他，图3中，提示图标显示的当前数值为100us，当然，这只是一个例子，提示图标显示的当前数值是可以变化的。图1中，该基于触摸屏的档位参数调节方法包括如下步骤：
步骤S01判断触摸屏上是否有触摸操作：本步骤中，判断触摸屏上是否有触摸操作，如果判断的结果为是，则执行步骤S03；否则，执行步骤S02。
步骤S02保持当前界面：如果上述步骤S01的判断结果为否，则执行本步骤。本步骤中，保持当前界面（即当前参数调节界面）。
步骤S03判断触摸操作的位置是否在提示图标上：如果上述步骤S01的判断结果为是，则执行本步骤。本步骤中，判断触摸操作的位置是否在提示图标上，如果触摸操作的位置在提示图标上，则执行步骤S05；否则，执行步骤S04。
步骤S04进入相应功能的界面或保持当前界面：如果上述步骤S03的判断结果为否，即触摸操作的位置不在提示图标上，则执行本步骤。本步骤中，进入相应功能的界面或保持当前界面，具体来讲，当触摸操作的位置在其他虚拟按键上时，则进入相应功能的界面；当触摸操作的位置在空白区域时，则保持当前界面。
步骤S05提示图标自动转换成一个标尺：如果上述步骤S03的判断结果为是，即提示图标被触摸，则执行本步骤。图4中为本实施例中提示图标被触摸的示意图。本步骤中，提示图标自动转换成一个标尺，本实施例中的标尺为水平标尺，当然，在其他实施例中，也可以是垂直标尺。本实施例中，具体就是当在触摸屏是检测到提示图标上有触摸时，该提示图标自动伸长，显示刻度，并形成一个标尺，此标尺可能受限于长度，不能完全将刻度显示出来。也就是说，标尺在上述参数调节显示界面上显示的刻度为局部刻度。图5为本实施例中提示图标转换成标尺的示意图。值得一提的是，当形成一个标尺之后，手指或者其他触摸工具可以短暂离开再次触摸标尺的任何位置，也可以不离开直接在标尺上滑动。执行完本步骤，执行步骤S06。
步骤S06判断手指或者其他触摸工具是否离开标尺：本步骤中，判断手指或者其他触摸工具是否离开标尺，也就是判断手指或者其他触摸工具是否还在触摸标尺位置，如果判断的结果为是，则执行步骤S08；否则，执行步骤S07。
步骤S07检测手指或者其他触摸工具在标尺上的当前位置，将其对应的当前刻度参数传送到系统进行处理，并更新系统界面：如果上述步骤S06的判断结果为否，则执行本步骤。本步骤中，检测手指或者其他触摸工具在标尺上的当前位置，将其对应的当前刻度参数传送到系统进行处理，并更新系统界面，关于检测手指或者其他触摸工具在标尺上的当前位置，有两种实现方法，稍后会进行详细描述。执行完本步骤，返回步骤S06。
步骤S08判断手指或者其他触摸工具离开标尺的时间是否大于设定时间：如果上述步骤S06的判断结果为是，则执行本步骤。本步骤中，判断手指或者其他触摸工具离开标尺的时间是否大于设定时间，如果手指或者其他触摸工具离开标尺的时间大于设定时间，则执行步骤S09；否则，返回步骤S07。
步骤S09标尺自动转换成提示图标：如果上述步骤S08的判断结果为是，则执行本步骤。本步骤中，标尺自动转换成提示图标，也就是手指或者其他触摸工具离开标尺的时间大于设定时间时，标尺自动缩回变为原来的提示图标。图5为本实施例中提示图标转换成标尺的示意图，如图5中的标尺1。这样就实现了档位参数的调节，其不需要机械的旋钮或按键，所以其能高效、方便地调节档位参数。由于在触摸屏上进行触摸操作即可完成对档位参数的调节，其相对于传统示波器的按键、旋钮操作更省空间，其调节速度更快、效率更高；同时由于省去了机械按键、旋钮，其硬件成本降低；由于采用触摸屏输入方式，其易学易用，也容易清洁；其相对于机械按键与旋钮，寿命较长；由于省去了机械按键与旋钮，其在屏幕上占用显示区域较小，增大了显示的区域。
本实施例中，标尺1上设有用于指示刻度参数的指示标记，如图6中的指示标记2。
对于本实施例而言，上述步骤S07还可进一步细化，其细化后的流程图如图2所示。图2中，上述步骤S07进一步包括如下步骤：
步骤S71检测手指或者其他触摸工具在标尺上的位置：本步骤中，检测手指或者其他触摸工具在标尺上的位置。
步骤S72指示标记或标尺随手指或者其他触摸工具在标尺上位置的变化而变化：本步骤中，指示标记2或标尺1随手指或者其他触摸工具在标尺1上位置的变化而变化。也就是说，当手指或者其他触摸工具在标尺1上的位置变化时，指示标记2在标尺1的位置也相应发生变化或者标尺1上的刻度发生移动。
步骤S73将手指或者其他触摸工具当前位置所指示的刻度或指示标记所指示的刻度作为当前刻度参数，并将当前刻度参数传送到系统处理后，更新系统界面：本步骤中，将手指或者其他触摸工具当前位置所指示的刻度或指示标记所指示的刻度作为当前刻度参数，并将当前刻度参数传送到系统处理后，更新系统界面。
本步骤中，要对两种情况进行具体说明。具体来讲，第一种情况是，当手指或者其他触摸工具在标尺1上的位置发生变化时，指示标记2的位置相应发生变化，但这时标尺1不随手指或者其他触摸工具移动；无论手指或者其他触摸工具处于停止状态还是处于滑动状态，手指或者其他触摸工具当前位置所指示的刻度即为当前刻度，并将当前刻度参数传输给系统进行处理；当手指或者其他触摸工具滑动到标尺1的始端或尾端时，标尺1沿着从始端向尾端的方向进行平移或者沿着从尾端向始端的方向进行平移。也就是说当手指或者其他触摸工具滑动到标尺1的始端时（如图8所示），标尺1沿着从始端向尾端的方向进行平移，这时未显示完的刻度将自动逐个移动到标尺1上（如图9所示），例如手指或者其他触摸工具滑动到标尺1的左端（即始端），那么标尺1未显示出来的刻度将自动从左到右出现，标尺1上原有刻度将自动从左向右逐个移动，原有最右边显示的刻度将自动逐个隐藏。当手指或者其他触摸工具离开标尺1的瞬间，指示标记2或者手指或者其他触摸工具最终指向的刻度即为最终刻度，同时，标尺1上的最终刻度自动移动到标尺1的中心位置（如图10所示），也就是当手指或者其他触摸工具离开标尺1后，当前刻度（手指或者其他触摸工具最终离开标尺1时的刻度）与指示标记2移动至标尺1的中心位置，这样可为下次的档位参数调节做好准备。
第二种情况是，当手指或者其他触摸工具在标尺1上的位置发生变化时，此时指示标记2不动，标尺刻度跟随手指或者其他触摸工具的滑动而移动，无论手指或者其他触摸工具处于停止状态还是处于滑动状态，指示标记2指示的刻度即为当前刻度（如图7所示），并将该当前刻度参数传输给系统进行处理。值得一提的是，当前刻度参数是实时传输给系统的，系统界面随着刻度参数的变化实时更新。这样可使系统界面实时与刻度参数保持一致。本实施例中，如果所调节的档位参数要求与刻度完全一致，则采用就近原则使指示标记与刻度对齐；如果所调节的档位参数允许是两个刻度之间的数值，则直接读取指示标记所指示的数值。值得一提的是，在本实施例的一些情况下，指示标记也可以省略，这时手指或者其他触摸工具的指向就是指示的刻度值，这样虽然在显示上没那么直观，但由于省略了指示标记，这样就省去了对其进行研发的工作，为系统节省资源，降低研发成本。
本实施例中，还涉及一种实现上述基于触摸屏的档位参数调节方法的装置，其结构示意图如图11所示。本实施例中，在参数调节显示界面上设置有提示图标。图11中，该装置包括触摸判断单元1、触摸位置判断单元2、离开判断单元3、时间判断单元4、位置检测判断单元5和标尺转换单元6；其中，触摸判断单元1用于判断触摸屏上是否有触摸操作，并在没有触摸操作时保持当前界面；触摸位置判断单元2用于判断触摸操作的位置是否在提示图标上，如是，提示图标自动转换成一个标尺；否则，进入相应功能的界面或保持当前界面；由于空间尺寸受限，标尺显示的刻度只能显示一部分，也就是标尺在参数调节显示界面上显示的刻度为局部刻度。
本实施例中，当想要观看比标尺始端显示的刻度还要小的刻度时，则将手指或者其他触摸工具滑动到标尺的始端，这时标尺沿着从始端向尾端的方向进行平移，想要的刻度就会自动逐个显示出来，而尾端的刻度也相应逐个隐藏起来；当想要观看比标尺尾端显示的刻度还要大的刻度时，则将手指或者其他触摸工具滑动到标尺的尾端，这时标尺沿着从尾端向始端的方向进行平移，想要的刻度就会自动逐个显示出来，而始端的刻度也相应逐个隐藏起来。通过这样调整，其操作比较方便，将需要的刻度显示出来，将不需要的刻度隐藏起来，这样可以节省空间，同时不会使界面显得那么繁琐。
本实施例中，离开判断单元3用于判断手指或者其他触摸工具是否离开标尺；时间判断单元4用于判断手指或者其他触摸工具离开标尺的时间是否大于设定时间；位置检测判断单元5用于检测手指或者其他触摸工具在所述标尺上的当前位置，将其对应的当前刻度参数传送到系统进行处理，并更新系统界面；标尺转换单元6用于使标尺自动转换成提示图标。由于在触摸屏上进行触摸操作即可完成对档位参数的调节，其相对于传统示波器的按键、旋钮操作更省空间，其调节速度更快、效率更高；同时由于省去了机械按键、旋钮，其硬件成本降低；由于采用触摸屏输入方式，其易学易用，也容易清洁；其相对于机械按键与旋钮，寿命较长；由于省去了机械按键与旋钮，其在屏幕上占用显示区域较小，增大了显示的区域。
本实施例中，标尺上设有用于指示刻度参数的指示标记，位置检测判断单元5进一步包括位置检测模块51、位置变换模块52和处理模块53；其中，位置检测模块51用于检测手指或者其他触摸工具在标尺上的位置；位置变换模块52用于使指示标记或标尺随手指或者其他触摸工具在标尺上位置的变化而变化；处理模块53用于将手指或者其他触摸工具当前位置所指示的刻度或指示标记所指示的刻度作为当前刻度参数，并将当前刻度参数传送到系统处理后，更新系统界面。当手指或者其他触摸工具离开标尺后，当前刻度与指示标记移动至标尺的中心位置，这样可为下次的档位参数调节做好准备。
总之，在本实施例中，当手指或者其他触摸工具接触提示图标时，提示图标自动延伸变为标尺；在标尺打开期间，手指或者其他触摸工具所指向的刻度即为当前刻度，或者，指示标记指向的刻度即为当前刻度；当前刻度参数实时传输给系统，系统界面随着刻度参数变化实时更新。此外，指示标记跟随手指或者其他触摸工具移动（指示标记也可以省略，手指或者其他触摸工具的指向就是指示的刻度值），当手指或者其他触摸工具移动至标尺始端（或者尾端）时，未显示出的刻度将逐个移动至标尺上；当手指或者其他触摸工具离开后，当前刻度和指示标记移动至标尺中央，为下次调节做好准备；手指或者其他触摸工具离开后一段时间，标尺自动缩回变为原提示图标，这样在不使用标尺时将其关闭；由于其操作都是通过触摸操作，相对于机械按键、旋钮操作更节省空间，其调节速度更快、效率更高；由于省去了机械按键和旋钮，其成本更低、寿命更长，同时在屏幕上占用的显示区域较小，可扩大显示区域的大小，此外，由于采用触摸屏输入方式，所以其易学、易用、易清洁。
以上所述仅为本发明的较佳实施例而已，并不用以限制本发明，凡在本发明的精神和原则之内，所作的任何修改、等同替换、改进等，均应包含在本发明的保护范围之内。

Claims (10)

  1. 一种基于触摸屏的档位参数调节方法，其特征在于，在参数调节显示界面上设置有提示图标；所述方法包括如下步骤：
    A判断所述触摸屏上是否有触摸操作，如是，执行步骤B；否则，保持当前界面；
    B判断所述触摸操作的位置是否在所述提示图标上，如是，所述提示图标自动转换成一个标尺并执行步骤C；否则，进入相应功能的界面或保持当前界面；
    C判断手指或者其他触摸工具是否离开所述标尺，如是，执行步骤D；否则，执行步骤E；
    D判断所述手指或者其他触摸工具离开所述标尺的时间是否大于设定时间，如是，执行步骤F；否则，执行步骤E；
    E检测所述手指或者其他触摸工具在所述标尺上的当前位置，将其对应的当前刻度参数传送到系统进行处理，并更新界面，返回步骤C；
    F所述标尺自动转换成所述提示图标。
  2. 根据权利要求1所述的基于触摸屏的档位参数调节方法，其特征在于，所述标尺上设有用于指示刻度参数的指示标记，所述步骤E进一步包括：
    E1检测所述手指或者其他触摸工具在所述标尺上的位置；
    E2所述指示标记或标尺随所述手指或者其他触摸工具在所述标尺上位置的变化而变化；
    E3将所述手指或者其他触摸工具当前位置所指示的刻度或指示标记所指示的刻度作为当前刻度参数，并将所述当前刻度参数传送到系统处理后，更新系统界面。
  3. 根据权利要求1或2所述的基于触摸屏的档位参数调节方法，其特征在于，当所述手指或者其他触摸工具滑动到所述标尺的始端或尾端时，所述标尺沿着从始端向尾端的方向进行平移或者沿着从尾端向始端的方向进行平移。
  4. 根据权利要求3所述的基于触摸屏的档位参数调节方法，其特征在于，所述手指或者其他触摸工具离开所述标尺后，当前刻度与所述指示标记移动至所述标尺的中心位置。
  5. 根据权利要求4所述的基于触摸屏的档位参数调节方法，其特征在于，所述标尺在所述参数调节显示界面上显示的刻度为局部刻度。
  6. 一种实现如权利要求1所述的基于触摸屏的档位参数调节方法的装置，其特征在于，在参数调节显示界面上设置有提示图标；所述装置包括：
    触摸判断单元：用于判断所述触摸屏上是否有触摸操作，并在没有触摸操作时保持当前界面；
    触摸位置判断单元：用于判断所述触摸操作的位置是否在所述提示图标上，如是，所述提示图标自动转换成一个标尺；否则，进入相应功能的界面或保持当前界面；
    离开判断单元：用于判断手指或者其他触摸工具是否离开所述标尺；
    时间判断单元：用于判断所述手指或者其他触摸工具离开所述标尺的时间是否大于设定时间；
    位置检测判断单元：用于检测所述手指或者其他触摸工具在所述标尺上的当前位置，将其对应的当前刻度参数传送到系统进行处理，并更新系统界面；
    标尺转换单元：用于使所述标尺自动转换成所述提示图标。
  7. 根据权利要求6所述的实现上述基于触摸屏的档位参数调节方法的装置，其特征在于，所述标尺上设有用于指示刻度参数的指示标记，所述位置检测判断单元进一步包括：
    位置检测模块：用于检测所述手指或者其他触摸工具在所述标尺上的位置；
    位置变换模块：用于使所述指示标记或标尺随所述手指或者其他触摸工具在所述标尺上位置的变化而变化；
    处理模块：用于将所述手指或者其他触摸工具当前位置所指示的刻度或指示标记所指示的刻度作为当前刻度参数，并将所述当前刻度参数传送到系统处理后，更新系统界面。
  8. 根据权利要求6或7所述的实现上述基于触摸屏的档位参数调节方法的装置，其特征在于，当所述手指或者其他触摸工具滑动到所述标尺的始端或尾端时，所述标尺沿着从始端向尾端的方向进行平移或者沿着从尾端向始端的方向进行平移。
  9. 根据权利要求8所述的实现上述基于触摸屏的档位参数调节方法的装置，其特征在于，所述手指或者其他触摸工具离开所述标尺后，当前刻度与所述指示标记移动至所述标尺的中心位置。
  10. 根据权利要求9所述的实现上述基于触摸屏的档位参数调节方法的装置，其特征在于，所述标尺在所述参数调节显示界面上显示的刻度为局部刻度。
PCT/CN2014/078776 2014-03-26 2014-05-29 一种基于触摸屏的档位参数调节方法及装置 WO2015143773A1 (zh)

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