CN104881190B - One kind interference processing method and electronic equipment - Google Patents
One kind interference processing method and electronic equipment Download PDFInfo
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- CN104881190B CN104881190B CN201510236834.7A CN201510236834A CN104881190B CN 104881190 B CN104881190 B CN 104881190B CN 201510236834 A CN201510236834 A CN 201510236834A CN 104881190 B CN104881190 B CN 104881190B
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Abstract
The embodiment of the invention discloses one kind interference processing method and electronic equipment；Methods described includes：Detect the first parameter of the touch control unit of electronic equipment；The deformation degree of touch control unit described in first parameter characterization；The first touch area of the touch control unit is determined based on first parameter, and based on the second parameter of the first touch area described in first parameter adjustment；The driving parameter of touch control unit described in second parameter characterization；First touch area of the touch control unit is controlled to export second parameter.
Description
Technical field
The present invention relates to data processing technique, and in particular to one kind interference processing method and electronic equipment.
Background technology
With the development of touch technology, large-sized touch screen is applied in the electronic device, such as all-in-one.Capacitance touching control
Screen includes glassy layer and film coating.When the touching display screen of electronic equipment is kept flat, display screen own wt is touched
Influence, sinking deformation can occur for the outermost glass panel of touching display screen；The size of touching display screen is bigger, under glass panel
Heavy deformation is more serious.Generally, the image element circuit of the display panel of electronic equipment is arranged on the inner side of touch screen, when touch screen is sent out
When giving birth to heavy deformation, the air gap between touch screen and display panel is thinning, and the image element circuit of display panel can influence electric capacity
The inductance capacitance of formula touch screen, and distance is nearer, the interference to inductance capacitance is bigger, so as to influence the touch-control behaviour to touch screen
Make, cause touch control operation abnormal or the problem of without response.
The content of the invention
To solve existing technical problem, the embodiment of the present invention provides a kind of interference processing method and electronic equipment,
The problem of can solve the problem that due to touch control operation exception caused by the deformation of touch control unit or without response.
To reach above-mentioned purpose, what the technical scheme of the embodiment of the present invention was realized in：
The embodiments of the invention provide one kind to disturb processing method, and methods described includes：
Detect the first parameter of the touch control unit of electronic equipment；The deformation journey of touch control unit described in first parameter characterization
Degree；
The first touch area of the touch control unit is determined based on first parameter, and is based on first parameter adjustment
Second parameter of first touch area；The driving parameter of touch control unit described in second parameter characterization；
First touch area of the touch control unit is controlled to export second parameter.
In such scheme, second parameter and the first parameter positive correlation after adjustment.
In such scheme, first touch area that the touch control unit is determined based on first parameter, including：
The central point of first touch area is determined based on first parameter, the first touch-control is determined by the central point
Subregion and the second touch-control subregion；First touch area includes the first touch-control subregion and the second touch-control sub-district
Domain；
Wherein, the central point of the first touch-control subregion and the second touch-control subregion overlaps, and described first touches
The area for controlling subregion is not equal to the area of the second touch-control subregion.
In such scheme, the central point that first touch area is determined based on first parameter, in described
Heart point determines the first touch-control subregion and the second touch-control subregion, including：
It is the first touch-control subregion and the second touch-control subregion to determine the maximum position of first parameter
Central point；
First touch-control subregion is determined by the first radius based on the central point；
Second touch-control subregion is determined by the second radius based on the central point；
Wherein, first radius is not equal to second radius；First radius and the size of the touch area
With the first proportionate relationship；Second radius and the size of the touch area have the second proportionate relationship；First ratio
Example relation and second proportionate relationship with the first parameter positive correlation.
In such scheme, when the area of the second touch-control subregion is more than the area of the first touch-control subregion,
Second parameter based on the first touch area described in first parameter adjustment, including：
The second parameter for adjusting the first touch-control subregion is M1；
The second parameter for adjusting the touch area in the second touch-control subregion and outside the first touch-control subregion is
M2；
Wherein, M1 is not equal to M2；M1 and M2 with the first parameter positive correlation.
The embodiment of the present invention additionally provides a kind of electronic equipment, and the electronic equipment includes：Touch control unit, detection unit,
Analysis and processing unit and control unit；Wherein,
The detection unit, for detecting the first parameter of touch control unit；Touch control unit described in first parameter characterization
Deformation degree；
The analysis and processing unit, for determining the touch-control list based on first parameter that the detection unit detects
First touch area of member, and based on the second parameter of the first touch area described in first parameter adjustment；Second ginseng
Number characterizes the driving parameter of the touch control unit；
Described control unit, for controlling first touch area of the touch control unit to export second parameter.
In such scheme, second parameter and the first parameter positive correlation after adjustment.
In such scheme, the analysis and processing unit, for determining first touch area based on first parameter
Central point, determine the first touch-control subregion and the second touch-control subregion by the central point；First touch area includes
First touch-control subregion and the second touch-control subregion；Wherein, the first touch-control subregion and the second touch-control sub-district
The central point in domain overlaps, and the area of the first touch-control subregion is not equal to the area of the second touch-control subregion.
In such scheme, the analysis and processing unit, for determining that the maximum position of first parameter is described first
The central point of touch-control subregion and the second touch-control subregion；First touch-control is determined by the first radius based on the central point
Region；Second touch-control subregion is determined by the second radius based on the central point；Wherein, first radius is not equal to described the
Two radiuses；First radius and the size of the touch area have the first proportionate relationship；Second radius touches with described
The size in control region has the second proportionate relationship；First proportionate relationship is joined with second proportionate relationship with described first
Number positive correlation.
In such scheme, the analysis and processing unit, it is more than described for the area when the second touch-control subregion
During the area of one touch-control subregion, the second parameter for adjusting the first touch-control subregion is M1；Adjust the second touch-control
Second parameter of the touch area in region and outside the first touch-control subregion is M2；Wherein, M1 is not equal to M2；M1 is equal with M2
With the first parameter positive correlation.
Interference processing method provided in an embodiment of the present invention and electronic equipment, detect the first of the touch control unit of electronic equipment
Parameter；The deformation degree of touch control unit described in first parameter characterization；The touch control unit is determined based on first parameter
The first touch area, and based on the second parameter of the first touch area described in first parameter adjustment；Second parameter
Characterize the driving parameter of the touch control unit；First touch area of the touch control unit is controlled to export second ginseng
Number.In this way, using the technical scheme of the embodiment of the present invention, by the detection of the first parameter to touch control unit, so as to adjust
State the second parameter of touch control unit so that when the deformation degree of the touch control unit is excessive, increase the drive of the touch control unit
Dynamic parameter, the problem of avoiding due to touch control operation exception caused by the deformation of touch control unit or without response, improve user's
Operating experience.
Brief description of the drawings
Fig. 1 is the schematic flow sheet of the interference processing method of the embodiment of the present invention one；
Fig. 2 is the schematic flow sheet of the interference processing method of the embodiment of the present invention two；
Fig. 3 is the schematic flow sheet of the interference processing method of the embodiment of the present invention three；
Fig. 4 is the schematic diagram of a scenario of the first touch area in the embodiment of the present invention three；
Fig. 5 is the composition structural representation of the electronic equipment of the embodiment of the present invention.
Embodiment
Below in conjunction with the accompanying drawings and specific embodiment the present invention is further detailed explanation.
Embodiment one
The embodiments of the invention provide one kind to disturb processing method.Fig. 1 is the interference processing method of the embodiment of the present invention one
Schematic flow sheet；As shown in figure 1, methods described includes：
Step 101：Detect the first parameter of the touch control unit of electronic equipment；Touch control unit described in first parameter characterization
Deformation degree.
Interference processing method described in the present embodiment is applied in electronic equipment, and the electronic equipment has touch control unit,
The touch control unit can be capacitive touch control unit；Specifically, the electronic equipment can be have touch controllable function mobile phone,
Tablet personal computer, all-in-one, desktop computer etc..Then in this step, the first parameter of the touch control unit of the detection electronic equipment,
Including：The electronic equipment detects the first parameter of the touch control unit of itself.
Specifically, the outermost layer of the touch control unit (such as capacitive touch control unit) is glassy layer, scribbles and lead in glassy layer
Electrocoat (ITO), then form conductive glass layer；Four electrodes are drawn at four angles of conductive glass layer, and electro-conductive glass is described four
Individual electrode provides and forms uniform electric field under voltage；Conductive glass layer is arranged with the inductance capacitance of array type；Because human body is band
Electric conductor, when user's finger contacts are to touch control unit surface, finger siphons away portion of electrical current from contact point, so as to change described connect
The capacitance size of inductance capacitance corresponding to contact；The change of capacitance size of the controller based on inductance capacitance determines the position of contact point
Put coordinate.Because the surface area of glassy layer is larger and its thickness is relatively thin, when the touch control unit (being specially glassy layer) is in
During non-vertical laying state (such as keeping flat), the influence that glassy layer can receive self gravitation deforms upon, and based on this, is examined in this step
Survey the first parameter of the touch control unit, namely the first parameter of the detection glassy layer.
Wherein, the touch control unit is arranged on the top of the liquid crystal display panel circuit of the electronic equipment, the touch-control
There is a layer of air layer, i.e., described touch control unit and the liquid crystal display panel between unit and the liquid crystal display panel circuit
There is certain distance between circuit；The air layer is specifically as follows 1.4 millimeters (mm).In the present embodiment, first parameter
The deformation degree of the touch control unit is characterized, first parameter can pass through the touch control unit and the liquid crystal display panel
The distance between circuit characterizes.Specifically, as a kind of embodiment, first parameter can be detected by range sensor and obtained
；As described in the difference of the distance between touch control unit and the liquid crystal display panel circuit and gauged distance as described in detecting determines
First parameter.As another embodiment, the own wt of the touch control unit (being specially glassy layer) can be based on, with reference to institute
The angle for stating touch control unit and vertical direction determines first parameter；For example, when the touch control unit and the folder of vertical direction
When angle is reverse 90 degree, described reverse 90 degree can be understood as 90 degree of rotate counterclockwise, i.e., described electronic equipment touches
Unit is controlled upper, liquid crystal display panel circuit is under；Accordingly, positive 90 degree are rotated ninety degrees clockwise, i.e., described electricity
The touch control unit of sub- equipment is under, and liquid crystal display panel circuit is upper.Then when the angle of the touch control unit and vertical direction is
At reverse 90 degree, because touch control unit is usually the rectangle (such as rectangle) of rule, then focus point is the midpoint of the rectangle,
Namely the deformation degree of the focus point is maximum；Weight, thickness and the own material of glassy layer based on the touch control unit
Type, the first parameter of the touch control unit is determined by preset formula model；Here, the rule of first parameter is：It is described
First parameter of the focus point of touch control unit is maximum, and first parameter on four summits of the touch control unit is minimum, from described heavy
Heart point to four summits, first parameter linearly reduces trend.
Step 102：The first touch area of the touch control unit is determined based on first parameter, and based on described first
Second parameter of the first touch area described in parameter adjustment；The driving parameter of touch control unit described in second parameter characterization.
Here, the touch control unit has touch area, and the touch area is generally equal to the display of the electronic equipment
Region, certainly, the touch area can also be unequal with the viewing area.Then in this step, first touch area
Less than or equal to the touch area.Four electrodes are drawn at four angles of the conductive glass layer of the touch control unit, so as to described
Four electrodes apply driving voltage and cause the electro-conductive glass to form uniform electric field, then in this step, second parameter is institute
The driving parameter of touch control unit is stated, the driving parameter is specifically as follows driving voltage.
In this step, first touch area that the touch control unit is determined based on first parameter, including：It is based on
The numerical values recited of first parameter determines the first touch area of the touch control unit.Specifically, determine first parameter
Touch area in the first preset threshold range is first touch area；For example, when first parameter is more than or equal to a
During less than or equal to b (a and b is positive integer and a is less than b), determine that touch area corresponding to first parameter is touched for described first
Control region.Certainly, the quantity of first touch area is at least one, for example, when first parameter is less than more than or equal to a
During equal to b, it is the first touch-control subregion to determine touch area corresponding to first parameter；When first parameter is more than or equal to
When c is less than b, it is the second touch-control subregion to determine touch area corresponding to first parameter；Wherein, a, b, c are positive integer.
Wherein, due to being touched the influence of unit deformation, between touch control unit and the liquid crystal display panel circuit
Air layer changes, namely the distance between the touch control unit and described liquid crystal display panel circuit change；Work as institute
Stating touch control unit deformation causes the distance between the touch control unit and liquid crystal display panel circuit to become hour, by the liquid crystal
The interference effect of display panel circuit, possibility None- identified goes out operation when the touch control unit exports according to the driving parameter of acquiescence
The operating point of body.Based on this, second parameter based on the first touch area described in first parameter adjustment, including：When
When first parameter reaches preset threshold range, improve second parameter to the preset threshold range and correspond to numerical value, and
Second parameter and the first parameter positive correlation after adjustment.Such as：It is pre-configured with the first preset threshold range and corresponds to number
Value M1, the second preset threshold range corresponds to numerical value M2, M1 and M2 and is all higher than acquiescence driving parameter, and M1 is more than M2；Then when described
When first parameter is in first preset threshold range, second parameter is adjusted to M1；When second parameter is described
When in the second preset threshold range, second parameter is adjusted to M2.
Step 103：First touch area of the touch control unit is controlled to export second parameter.
Using the technical scheme of the embodiment of the present invention, by the detection of the first parameter to touch control unit, so as to adjust
State the second parameter of touch control unit so that when the deformation degree of the touch control unit is excessive, increase the drive of the touch control unit
Dynamic parameter, the problem of avoiding due to touch control operation exception caused by the deformation of touch control unit or without response, improve user's
Operating experience.
Embodiment two
The embodiments of the invention provide one kind to disturb processing method.Fig. 2 is the interference processing method of the embodiment of the present invention two
Schematic flow sheet；As shown in Fig. 2 methods described includes：
Step 201：Detect the first parameter of the touch control unit of electronic equipment；Touch control unit described in first parameter characterization
Deformation degree.
Interference processing method described in the present embodiment is applied in electronic equipment, and the electronic equipment has touch control unit,
The touch control unit can be capacitive touch control unit；Specifically, the electronic equipment can be have touch controllable function mobile phone,
Tablet personal computer, all-in-one, desktop computer etc..Then in this step, the first parameter of the touch control unit of the detection electronic equipment,
Including：The electronic equipment detects the first parameter of the touch control unit of itself.
Specifically, the outermost layer of the touch control unit (such as capacitive touch control unit) is glassy layer, scribbles and lead in glassy layer
Electrocoat (ITO), then form conductive glass layer；Four electrodes are drawn at four angles of conductive glass layer, and electro-conductive glass is described four
Individual electrode provides and forms uniform electric field under voltage；Conductive glass layer is arranged with the inductance capacitance of array type；Because human body is band
Electric conductor, when user's finger contacts are to touch control unit surface, finger siphons away portion of electrical current from contact point, so as to change described connect
The capacitance size of inductance capacitance corresponding to contact；The change of capacitance size of the controller based on inductance capacitance determines the position of contact point
Put coordinate.Because the surface area of glassy layer is larger and its thickness is relatively thin, when the touch control unit (being specially glassy layer) is in
During non-vertical laying state (such as keeping flat), the influence that glassy layer can receive self gravitation deforms upon, and based on this, is examined in this step
Survey the first parameter of the touch control unit, namely the first parameter of the detection glassy layer.
Wherein, the touch control unit is arranged on the top of the liquid crystal display panel circuit of the electronic equipment, the touch-control
There is a layer of air layer, i.e., described touch control unit and the liquid crystal display panel between unit and the liquid crystal display panel circuit
There is certain distance between circuit；The air layer is specifically as follows 1.4 millimeters (mm).In the present embodiment, first parameter
The deformation degree of the touch control unit is characterized, first parameter can pass through the touch control unit and the liquid crystal display panel
The distance between circuit characterizes.Specifically, as a kind of embodiment, first parameter can be detected by range sensor and obtained
；As described in the difference of the distance between touch control unit and the liquid crystal display panel circuit and gauged distance as described in detecting determines
First parameter.As another embodiment, the own wt of the touch control unit (being specially glassy layer) can be based on, with reference to institute
The angle for stating touch control unit and vertical direction determines first parameter；For example, when the touch control unit and the folder of vertical direction
When angle is reverse 90 degree, described reverse 90 degree can be understood as 90 degree of rotate counterclockwise, i.e., described electronic equipment touches
Unit is controlled upper, liquid crystal display panel circuit is under；Accordingly, positive 90 degree are rotated ninety degrees clockwise, i.e., described electricity
The touch control unit of sub- equipment is under, and liquid crystal display panel circuit is upper.Then when the angle of the touch control unit and vertical direction is
At reverse 90 degree, because touch control unit is usually the rectangle (such as rectangle) of rule, then focus point is the midpoint of the rectangle,
Namely the deformation degree of the focus point is maximum；Weight, thickness and the own material of glassy layer based on the touch control unit
Type, the first parameter of the touch control unit is determined by preset formula model；Here, the rule of first parameter is：It is described
First parameter of the focus point of touch control unit is maximum, and first parameter on four summits of the touch control unit is minimum, from described heavy
Heart point to four summits, first parameter linearly reduces trend.
Step 202：The central point of first touch area is determined based on first parameter, is determined by the central point
First touch-control subregion and the second touch-control subregion；First touch area includes the first touch-control subregion and described second and touched
Control subregion；Wherein, the central point of the first touch-control subregion and the second touch-control subregion overlaps, and described first touches
The area for controlling subregion is not equal to the area of the second touch-control subregion.
Here, the touch control unit has touch area, and the touch area is generally equal to the display of the electronic equipment
Region, certainly, the touch area can also be unequal with the viewing area.Then in this step, first touch area
Less than or equal to the touch area.Four electrodes are drawn at four angles of the conductive glass layer of the touch control unit, so as to described
Four electrodes apply driving voltage and cause the electro-conductive glass to form uniform electric field, then in this step, second parameter is institute
The driving parameter of touch control unit is stated, the driving parameter is specifically as follows driving voltage.
In the present embodiment, the central point that first touch area is determined based on first parameter, in described
Heart point determines the first touch-control subregion and the second touch-control subregion, including：Determine the maximum touch point conduct of first parameter
The central point of first touch area, i.e. using the maximum touch point of the deformation degree of the touch control unit as described first
The central point of touch area, the first touch-control subregion and the second touch-control subregion are divided based on the central point；Due to by described
The influence of the quality of the glassy layer of touch control unit, thickness and material, first parameter is from the central point to four summits
Between linearly change, i.e., described first touch-control subregion and the second touch-control subregion are continuously distributed region；Then originally
It is origin based on the central point in step, the first touch-control subregion is determined by the first radius；It is based on the central point
Origin, the second touch-control subregion is determined by the second radius；Wherein, first radius is not equal to second radius；Institute
Stating the first radius and the size of the touch area has the first proportionate relationship；Second radius and the chi of the touch area
It is very little that there is the second proportionate relationship；First proportionate relationship and second proportionate relationship with the first parameter positive correlation.
Wherein, the maximum touch point of first parameter can be at least one that the central point of that is, described first touch area is at least
One；When the central point of first touch area is one, the first touch-control subregion is to be determined by the first radius
Border circular areas, the second touch-control subregion are the border circular areas determined by second radius；When first touch area
Central point be at least two when, the first touch-control subregion be by the first radius determine elliptical region；Described second
Touch-control subregion is the elliptical region determined by the second radius.Wherein, first radius and second radius with it is described
First parameter positive correlation, namely the deformation degree positive correlation with the touch control unit.Wherein, the face of the first touch-control subregion
Product is not equal to the area of the second touch-control subregion, then the area of the first touch-control subregion is more than second touch-control
The area in region, or, the area of the first touch-control subregion is less than the area of the second touch-control subregion.
Step 203：The second parameter for adjusting the first touch-control subregion is M1；Adjust in the second touch-control subregion
And the second parameter of the touch area outside the first touch-control subregion is M2；Wherein, M1 is not equal to M2；M1 and M2 with it is described
First parameter positive correlation；The driving parameter of touch control unit described in second parameter characterization.Wherein, the second touch-control subregion
Area be more than the first touch-control subregion area.
In the present embodiment, using the area of the first touch-control subregion be more than the second touch-control subregion area as
Example, then the second parameter of the first touch-control subregion is that the second parameter that M1 is more than the second touch-control subregion is that M2 is more than
The acquiescence driving parameter of the touch control unit, it can be understood as, the deformation degree of the touch control unit is bigger, corresponding driving ginseng
Number adjusts bigger.
Step 204：The first touch-control subregion of the touch control unit is controlled to export second parameter by M1；Control
Touch area in the second touch-control subregion and outside the first touch-control subregion exports second parameter by M2.
Using the technical scheme of the embodiment of the present invention, by the detection of the first parameter to touch control unit, so as to adjust
State the second parameter of touch control unit so that when the deformation degree of the touch control unit is excessive, increase the drive of the touch control unit
Dynamic parameter, the problem of avoiding due to touch control operation exception caused by the deformation of touch control unit or without response, improve user's
Operating experience.
Embodiment three
The embodiment of the present invention additionally provides a kind of interference processing method.The present embodiment is by taking concrete application as an example to of the invention real
The interference processing method for applying example is described in detail.In the present embodiment, the touch area of the touch control unit of the electronic equipment and
The viewing area of display unit is equal and is rectangle, and the electronic equipment is in horizontal positioned state, i.e., described touch control unit and
The display unit is horizontally oriented and the touch control unit is above the display unit.Fig. 3 is the embodiment of the present invention three
Interference processing method schematic flow sheet；As shown in figure 3, methods described includes：
Step 301：Detect the first parameter of the touch control unit of electronic equipment；Touch control unit described in first parameter characterization
Deformation degree.
Interference processing method described in the present embodiment is applied in electronic equipment, and the electronic equipment has touch control unit,
The touch control unit can be capacitive touch control unit；Specifically, the electronic equipment can be have touch controllable function mobile phone,
Tablet personal computer, all-in-one, desktop computer etc..Then in this step, the first parameter of the touch control unit of the detection electronic equipment,
Including：The electronic equipment detects the first parameter of the touch control unit of itself.
Specifically, the outermost layer of the touch control unit (such as capacitive touch control unit) is glassy layer, scribbles and lead in glassy layer
Electrocoat (ITO), then form conductive glass layer；Four electrodes are drawn at four angles of conductive glass layer, and electro-conductive glass is described four
Individual electrode provides and forms uniform electric field under voltage；Conductive glass layer is arranged with the inductance capacitance of array type；Because human body is band
Electric conductor, when user's finger contacts are to touch control unit surface, finger siphons away portion of electrical current from contact point, so as to change described connect
The capacitance size of inductance capacitance corresponding to contact；The change of capacitance size of the controller based on inductance capacitance determines the position of contact point
Put coordinate.Because the surface area of glassy layer is larger and its thickness is relatively thin, when the touch control unit (being specially glassy layer) is in
During non-vertical laying state (such as keeping flat), the influence that glassy layer can receive self gravitation deforms upon, and based on this, is examined in this step
Survey the first parameter of the touch control unit, namely the first parameter of the detection glassy layer.
Wherein, the touch control unit is arranged on the top of the liquid crystal display panel circuit of the electronic equipment, the touch-control
There is a layer of air layer, i.e., described touch control unit and the liquid crystal display panel between unit and the liquid crystal display panel circuit
There is certain distance between circuit；The air layer is specifically as follows 1.4 millimeters (mm).In the present embodiment, first parameter
The deformation degree of the touch control unit is characterized, first parameter can pass through the touch control unit and the liquid crystal display panel
The distance between circuit characterizes.Specifically, as a kind of embodiment, first parameter can be detected by range sensor and obtained
；As described in the difference of the distance between touch control unit and the liquid crystal display panel circuit and gauged distance as described in detecting determines
First parameter.As another embodiment, the own wt of the touch control unit (being specially glassy layer) can be based on, with reference to institute
The angle for stating touch control unit and vertical direction determines first parameter；For example, when the touch control unit and the folder of vertical direction
When angle is reverse 90 degree, described reverse 90 degree can be understood as 90 degree of rotate counterclockwise, i.e., described electronic equipment touches
Unit is controlled upper, liquid crystal display panel circuit is under；Accordingly, positive 90 degree are rotated ninety degrees clockwise, i.e., described electricity
The touch control unit of sub- equipment is under, and liquid crystal display panel circuit is upper.Then when the angle of the touch control unit and vertical direction is
At reverse 90 degree, because touch control unit is usually the rectangle (such as rectangle) of rule, then focus point is the midpoint of the rectangle,
Namely the deformation degree of the focus point is maximum；Weight, thickness and the own material of glassy layer based on the touch control unit
Type, the first parameter of the touch control unit is determined by preset formula model；Here, the rule of first parameter is：It is described
First parameter of the focus point of touch control unit is maximum, and first parameter on four summits of the touch control unit is minimum, from described heavy
Heart point to four summits, first parameter linearly reduces trend.
Step 302：Central point O is determined based on first parameter.
Here, in this step, center of the maximum touch point of first parameter as first touch area is determined
Point.Because the touch control unit of electronic equipment described in the present embodiment is rectangle, and the outermost glass thickness of the touch control unit
Degree is uniform, therefore the touch point of first parameter maximum is where the segment centerline parallel with the long side of the touch control unit
Point.Based on this, Fig. 4 is the schematic diagram of a scenario of the first touch area in the embodiment of the present invention three, as shown in figure 4, being touched with described
Exemplified by the top left co-ordinate of control unit is (0,0), bottom right angular coordinate is (x, y), it is determined that the coordinate of the central point O is (x/
2, y/2).
Step 303：Centered on O points, X1 is major radius, Y1 is that short radius determines the first touch-control subregion；X2 is long by half
Footpath, Y2 are that short radius determines the second touch-control subregion；Wherein, X1 is less than X2；Y1 is less than Y2.
In the present embodiment, because the touch control unit is rectangle, then the first touch-control subregion and second touch-control
Subregion is elliptic region, i.e., is that short radius determines the first elliptic region using X1 as major radius, Y1, using X2 as major radius, Y2
The second elliptic region is determined for short radius.Specifically, X1=N1X, Y1=N1Y；X2=N2X, Y1=N2Y；Wherein, N1 is less than
N2。
Specifically, the numerical values recited positive correlation of N1 and N2 numerical values recited and first parameter, i.e., described first parameter
Bigger, N1 and N2 numerical value are bigger.For example, N1=0.05 or 0.06；N2=0.10 or 0.15.
Step 304：The second parameter for adjusting the first touch-control subregion is M1；Adjust in the second touch-control subregion
And the second parameter of the touch area outside the first touch-control subregion is M2；Wherein, M1 is more than M2；M1 and M2 are with described the
One parameter positive correlation；Wherein, the driving parameter of touch control unit described in second parameter characterization.Wherein, the second touch-control
The area in region is more than the area of the first touch-control subregion.
Here, the driving parameter of touch control unit described in second parameter characterization, the driving parameter are specifically as follows drive
Dynamic voltage.Wherein, M1 is more than M more than M2；M is that the acquiescence of the touch control unit drives parameter.
Step 305：The first touch-control subregion of the touch control unit is controlled to export second parameter by M1；Control
Touch area in the second touch-control subregion and outside the first touch-control subregion exports second parameter by M2.
Using the technical scheme of the embodiment of the present invention, by the detection of the first parameter to touch control unit, so as to adjust
State the second parameter of touch control unit so that when the deformation degree of the touch control unit is excessive, increase the drive of the touch control unit
Dynamic parameter, the problem of avoiding due to touch control operation exception caused by the deformation of touch control unit or without response, improve user's
Operating experience.
Example IV
The embodiment of the present invention additionally provides a kind of electronic equipment.Fig. 5 is the composition knot of the electronic equipment of the embodiment of the present invention
Structure schematic diagram；As shown in figure 5, the electronic equipment includes：Touch control unit 50, detection unit 51, analysis and processing unit 52 and control
Unit 53 processed；Wherein,
The detection unit 51, for detecting the first parameter of touch control unit 50；Touch-control described in first parameter characterization
The deformation degree of unit 50；
The analysis and processing unit 52, first parameter for being detected based on the detection unit 51 determine described touch
The first touch area of unit 50 is controlled, and based on the second parameter of the first touch area described in first parameter adjustment；It is described
The driving parameter of touch control unit 50 described in second parameter characterization；
Described control unit 53, first touch area for controlling the touch control unit 50 export second ginseng
Number.
Wherein, second parameter after adjustment and the first parameter positive correlation.
It will be appreciated by those skilled in the art that in the electronic equipment of the embodiment of the present invention each processing unit function, can join
Understand, each processing unit in the electronic equipment of the embodiment of the present invention according to the associated description of foregoing interference processing method, can pass through
Realize the analog circuit of the function described in the embodiment of the present invention and realize, can also be by performing the work(described in the embodiment of the present invention
Can operation of the software on intelligent terminal and realize.
Embodiment five
The embodiment of the present invention additionally provides a kind of electronic equipment, as shown in figure 5, the electronic equipment includes：Touch control unit
50th, detection unit 51, analysis and processing unit 52 and control unit 53；Wherein,
The detection unit 51, for detecting the first parameter of touch control unit 50；Touch-control described in first parameter characterization
The deformation degree of unit 50；
The analysis and processing unit 52, for determining the central point of first touch area based on first parameter,
The first touch-control subregion and the second touch-control subregion are determined by the central point；First touch area includes the first touch-control
Region and the second touch-control subregion；Wherein, the central point of the first touch-control subregion and the second touch-control subregion
Overlap, and the area of the first touch-control subregion is not equal to the area of the second touch-control subregion；It is additionally operable to when described the
When the area of two touch-control subregions is more than the area of the first touch-control subregion, the second of the first touch-control subregion is adjusted
Parameter is M1；The second parameter for adjusting the touch area in the second touch-control subregion and outside the first touch-control subregion is
M2；Wherein, M1 is not equal to M2；M1 and M2 with the first parameter positive correlation；Touch control unit described in second parameter characterization
50 driving parameter；
Described control unit 53, first touch area for controlling the touch control unit 50 export second ginseng
Number.
Wherein, second parameter after adjustment and the first parameter positive correlation.
Specifically, the analysis and processing unit 52, for determining that the maximum position of first parameter is touched for described first
Control the central point of subregion and the second touch-control subregion；First touch-control sub-district is determined by the first radius based on the central point
Domain；Second touch-control subregion is determined by the second radius based on the central point；Wherein, first radius is not equal to described second
Radius；First radius and the size of the touch area have the first proportionate relationship；Second radius and the touch-control
The size in region has the second proportionate relationship；First proportionate relationship and second proportionate relationship with first parameter
Positive correlation.
It will be appreciated by those skilled in the art that in the electronic equipment of the embodiment of the present invention each processing unit function, can join
Understand, each processing unit in the electronic equipment of the embodiment of the present invention according to the associated description of foregoing interference processing method, can pass through
Realize the analog circuit of the function described in the embodiment of the present invention and realize, can also be by performing the work(described in the embodiment of the present invention
Can operation of the software on intelligent terminal and realize.
In the embodiment of the present invention four and embodiment five, analysis and processing unit 52 and control unit in the electronic equipment
53, in actual applications can by the central processing unit (CPU, Central Processing Unit) in the electronic equipment,
Digital signal processor (DSP, Digital Signal Processor) or programmable gate array (FPGA, Field-
Programmable Gate Array) realize；Touch control unit 50 in the electronic equipment, in actual applications can be by described
Capacitance type touch control screen in electronic equipment is realized；Detection unit 51 in the electronic equipment, in actual applications can be by described
Sensor (such as range sensor) in electronic equipment is realized.
It should be understood by those skilled in the art that, embodiments of the invention can be provided as method, system or computer program
Product.Therefore, the shape of the embodiment in terms of the present invention can use hardware embodiment, software implementation or combination software and hardware
Formula.Moreover, the present invention can use the computer for wherein including computer usable program code in one or more to use storage
The form for the computer program product that medium is implemented on (including but is not limited to magnetic disk storage and optical memory etc.).
The present invention is the flow with reference to method according to embodiments of the present invention, equipment (system) and computer program product
Figure and/or block diagram describe.It should be understood that can be by every first-class in computer program instructions implementation process figure and/or block diagram
Journey and/or the flow in square frame and flow chart and/or block diagram and/or the combination of square frame.These computer programs can be provided
The processors of all-purpose computer, special-purpose computer, Embedded Processor or other programmable data processing devices is instructed to produce
A raw machine so that produced by the instruction of computer or the computing device of other programmable data processing devices for real
The device for the function of being specified in present one flow of flow chart or one square frame of multiple flows and/or block diagram or multiple square frames.
These computer program instructions, which may be alternatively stored in, can guide computer or other programmable data processing devices with spy
Determine in the computer-readable memory that mode works so that the instruction being stored in the computer-readable memory, which produces, to be included referring to
Make the manufacture of device, the command device realize in one flow of flow chart or multiple flows and/or one square frame of block diagram or
The function of being specified in multiple square frames.
These computer program instructions can be also loaded into computer or other programmable data processing devices so that counted
Series of operation steps is performed on calculation machine or other programmable devices to produce computer implemented processing, so as in computer or
The instruction performed on other programmable devices is provided for realizing in one flow of flow chart or multiple flows and/or block diagram one
The step of function of being specified in individual square frame or multiple square frames.
The foregoing is only a preferred embodiment of the present invention, is not intended to limit the scope of the present invention.
Claims (10)
1. one kind interference processing method, methods described include：
Detect the first parameter of the touch control unit of electronic equipment；The deformation degree of touch control unit described in first parameter characterization；
The first touch area of the touch control unit is determined based on first parameter, and based on described in first parameter adjustment
Second parameter of the first touch area；The driving parameter of touch control unit described in second parameter characterization；
First touch area of the touch control unit is controlled to export second parameter.
2. according to the method for claim 1, it is characterised in that second parameter and first parameter after adjustment are just
It is related.
3. according to the method for claim 1, it is characterised in that described that the touch control unit is determined based on first parameter
The first touch area, including：
The central point of first touch area is determined based on first parameter, the first touch-control sub-district is determined by the central point
Domain and the second touch-control subregion；First touch area includes the first touch-control subregion and the second touch-control subregion；
Wherein, the central point of the first touch-control subregion and the second touch-control subregion overlaps, and first touch-control
The area in region is not equal to the area of the second touch-control subregion.
4. according to the method for claim 3, it is characterised in that described that first touch-control is determined based on first parameter
The central point in region, the first touch-control subregion and the second touch-control subregion are determined by the central point, including：
Determine center of the maximum position of first parameter for the first touch-control subregion and the second touch-control subregion
Point；
First touch-control subregion is determined by the first radius based on the central point；
Second touch-control subregion is determined by the second radius based on the central point；
Wherein, first radius is not equal to second radius；First radius and the size of the touch area have
First proportionate relationship；Second radius and the size of the touch area have the second proportionate relationship；First ratio is closed
System with second proportionate relationship with the first parameter positive correlation.
5. according to the method for claim 3, it is characterised in that when the area of the second touch-control subregion is more than described the
During the area of one touch-control subregion, second parameter based on the first touch area described in first parameter adjustment, including：
The second parameter for adjusting the first touch-control subregion is M1；
The second parameter for adjusting the touch area in the second touch-control subregion and outside the first touch-control subregion is M2；
Wherein, M1 is not equal to M2；M1 and M2 with the first parameter positive correlation.
6. a kind of electronic equipment, the electronic equipment includes：Touch control unit, detection unit, analysis and processing unit and control unit；
Wherein,
The detection unit, for detecting the first parameter of touch control unit；The shape of touch control unit described in first parameter characterization
Change degree；
The analysis and processing unit, for determining the touch control unit based on first parameter that the detection unit detects
First touch area, and based on the second parameter of the first touch area described in first parameter adjustment；Second parameter list
Levy the driving parameter of the touch control unit；
Described control unit, for controlling first touch area of the touch control unit to export second parameter.
7. electronic equipment according to claim 6, it is characterised in that second parameter and the described first ginseng after adjustment
Number positive correlation.
8. electronic equipment according to claim 6, it is characterised in that the analysis and processing unit, for based on described
One parameter determines the central point of first touch area, and the first touch-control subregion and the second touch-control are determined by the central point
Region；First touch area includes the first touch-control subregion and the second touch-control subregion；Wherein, first touch-control
The central point of subregion and the second touch-control subregion overlaps, and the area of the first touch-control subregion is not equal to described the
The area of two touch-control subregions.
9. electronic equipment according to claim 8, it is characterised in that the analysis and processing unit, for determining described
The maximum position of one parameter is the first touch-control subregion and the central point of the second touch-control subregion；Based on the center
Press the first radius and determine the first touch-control subregion；Second touch-control subregion is determined by the second radius based on the central point；Its
In, first radius is not equal to second radius；The size of first radius and the touch area has the first ratio
Example relation；Second radius and the size of the touch area have the second proportionate relationship；First proportionate relationship and institute
State the second proportionate relationship with the first parameter positive correlation.
10. electronic equipment according to claim 8, it is characterised in that the analysis and processing unit, for when described second
When the area of touch-control subregion is more than the area of the first touch-control subregion, the second ginseng of the first touch-control subregion is adjusted
Number is M1；The second parameter for adjusting the touch area in the second touch-control subregion and outside the first touch-control subregion is
M2；Wherein, M1 is not equal to M2；M1 and M2 with the first parameter positive correlation.
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| CN106445264B (en) * | 2016-08-31 | 2019-10-15 | 维沃移动通信有限公司 | A kind of calibration method and mobile terminal of touch control operation |
| CN110141865B (en) * | 2019-05-23 | 2022-11-08 | 网易（杭州）网络有限公司 | Game parameter modification method and device, electronic equipment and storage medium |
| CN113342204B (en) * | 2021-06-11 | 2024-02-27 | 瀚瑞微电子科技(深圳)有限公司 | Touch control system adapting method, device, equipment, storage medium and program product |
Citations (6)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN1503118A (en) * | 2002-11-21 | 2004-06-09 | ���ǵ�����ʽ���� | Apparatus and method for preventing noise in a touch screen |
| CN101983372A (en) * | 2008-04-04 | 2011-03-02 | 高通股份有限公司 | Low-power touch screen controller |
| CN102662518A (en) * | 2012-03-31 | 2012-09-12 | 华映光电股份有限公司 | System and method for controlling signal noise ratio |
| CN103677610A (en) * | 2012-09-21 | 2014-03-26 | 联想(北京)有限公司 | Information processing method and electronic device |
| CN103838444A (en) * | 2012-11-27 | 2014-06-04 | 联想(北京)有限公司 | Input method and input equipment |
| CN104049787A (en) * | 2013-03-14 | 2014-09-17 | 联想(北京)有限公司 | Electronic equipment and control method |
Family Cites Families (1)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| US6624835B2 (en) * | 2001-01-09 | 2003-09-23 | National Semiconductor Corporation | System and method for noise reduction in touch screen system |
-
2015
- 2015-05-11 CN CN201510236834.7A patent/CN104881190B/en active Active
Patent Citations (6)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN1503118A (en) * | 2002-11-21 | 2004-06-09 | ���ǵ�����ʽ���� | Apparatus and method for preventing noise in a touch screen |
| CN101983372A (en) * | 2008-04-04 | 2011-03-02 | 高通股份有限公司 | Low-power touch screen controller |
| CN102662518A (en) * | 2012-03-31 | 2012-09-12 | 华映光电股份有限公司 | System and method for controlling signal noise ratio |
| CN103677610A (en) * | 2012-09-21 | 2014-03-26 | 联想(北京)有限公司 | Information processing method and electronic device |
| CN103838444A (en) * | 2012-11-27 | 2014-06-04 | 联想(北京)有限公司 | Input method and input equipment |
| CN104049787A (en) * | 2013-03-14 | 2014-09-17 | 联想(北京)有限公司 | Electronic equipment and control method |
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