Utility model content
This application provides a kind of screen assemblies.Screen assembly includes display module and light emitting mould group, in display module
One layer of glass substrate and light emitting mould group in one layer of glass substrate be multiplexed, reduce one layer of glass substrate, to reduce
The Material Cost of screen assembly, and reduce the thickness of screen assembly.
In a first aspect, the application provides a kind of screen assembly.The screen assembly includes display module and light emitting mould group.
The display module is for showing picture.The light emitting mould group is for emitting the light through ovennodulation.The light emitting mould group can
To be used for 3 dimension imaging technology.
The light emitting mould group includes optical element and light source.One layer of glass substrate in the display module is described in
The surface of light source is provided with optical microstructures.The optical microstructures and at least partly described glass substrate form the optics member
Part.That is, the glass substrate of one layer of glass substrate and optical element in the light emitting mould group in the display module is multiplexed.
At this point, the light emitting mould group does not include glass substrate, or reduce one layer of glass substrate.
The optical element and the glass substrate are respectively positioned on the light emission side of the light source.Wherein, described used for optical elements
It is modulated in the light issued to the light source.(the diffractive when the optical element is diffraction optical element
Optical elements, DOE), the light of the light source transmitting is scattered by the optical microstructures, and then is obtained required
Speckle pattern.When the optical element is diffuser, the light of the light source transmitting is expanded by diffuser, and then
To required light.
In the embodiment of the present application, by the way that the optical microstructures in the light emitting mould group are directly arranged in the display
On one layer of glass substrate in mould group, on the one hand, reduce one layer of glass substrate in the light emitting mould group, to reduce
The quantity of glass substrate in the screen assembly, reduces the Material Cost of the screen assembly.On the other hand, the display mould
The glass substrate in one layer of glass substrate and the light emitting mould group in group is multiplexed, and reduces one layer of glass substrate, to subtract
The small overall thickness of the screen assembly.
With reference to first aspect, in the first implementation, the display module includes two or more layers glass substrate.Two
The stacking setting of glass substrate described in layer or multilayer.Wherein, every layer glass substrate interval is arranged.It is located at institute in the display module
Stating outermost glass substrate on the light emission side direction of light source is the first glass substrate.That is, the glass described in two or more layers
In substrate, the distance between first glass substrate and the light source are farthest.The optical microstructures are set to first glass
Glass substrate is towards the surface of the light source.That is, the optical microstructures be located at first glass substrate and the light source it
Between.
Wherein, first glass substrate is the glass cover-plate in the display module.Glass cover-plate can play isolation
The effect of moisture and oxygen, to protect the display module, to improve the quality of the display module.Since the light is sent out
The light for penetrating the projection of mould group is needed across the display module, therefore the region where the light emitting mould group is the display module
Non-display area.At this point, the optical microstructures are set on the outermost glass substrate of the display module, along the light source
On the direction of light emission side, the occupied space of other structures of the light emitting mould group and the other structures in the display module
Occupied spatial reuse.
In the present embodiment, the optical microstructures are set on the outermost glass substrate of the display module, on the one hand,
The glass substrate in glass substrate and the light emitting mould group in the display module is multiplexed, and reduces the light emitting mould group
Thickness.On the other hand, the occupied space of other structures in the light emitting mould group and other knots in the display module
The occupied spatial reuse of structure, to reduce the general thickness of the screen assembly.
With reference to first aspect or the first implementation, in the second implementation, the display module includes array
Substrate and the display layer being stacked with the array substrate.The display layer is located at the array substrate and first glass
Between substrate.The display layer is for showing picture.
The array substrate and the display layer are equipped with through-hole.Light emitting mould group described in the through-hole accommodating portion.Institute
It states when through-hole is installed on the display module for the light emitting mould group and space is provided, so that the display module and the light are sent out
The spatial reuse for penetrating mould group reduces the thickness of the screen assembly.
Projection of the through-hole on first glass substrate all covers the light source in first glass substrate
On projection.That is, the light of light source transmitting passes through the through-hole, the array substrate and the display layer are avoided
The light of light source described in structure barrier, to improve the utilization rate of the light of the light source transmitting.
Projection section or the whole covering optical microstructures of the through-hole on first glass substrate are described
Projection on first glass substrate.That is, after the light of the light source transmitting passes through the through-hole, then it is projeced into the micro- knot of the optics
Structure.Projection section or the whole covering optical microstructures of the through-hole on first glass substrate are in first glass
Projection on glass substrate ensure that the light across the through-hole can be all projeced on the optical microstructures, to improve
The utilization rate of the light of the light source transmitting.
In the embodiment of the present application, the light source, the position of the through-hole and the optical microstructures and size relation, make
The light for obtaining the light source transmitting can be largely or entirely projeced on the optical microstructures, improve the light source transmitting
The utilization rate of light.
In conjunction with second of implementation, in the third implementation, the central axis of the through-hole and the micro- knot of the optics
The center overlapping of axles of structure, and the center overlapping of axles of the central axis of the light source and the through-hole.
In the embodiment of the present application, the central axis of the light source, the central axis of the through-hole and the optical microstructures
Center overlapping of axles, so that the light source and the optical microstructures are during installation, in this way it is easy to determine just whether installation site
Really, installation effectiveness is improved.
With reference to first aspect, in the 4th kind of implementation, the display module includes the second glass being cascading
Glass substrate, array substrate, display layer and the first glass substrate.The optical microstructures are set to second glass substrate towards institute
State the surface of light source.The light source is located at side of second glass substrate far from first glass substrate.Described first
Glass substrate is the exiting side that the light source emits beam.
Wherein, the display module includes glass substrate described in two or more layers.First glass substrate and described
Two glass substrates are the layer glass substrates in glass substrate described in two or more layers.
In the embodiment of the present application, the optical microstructures are set to table of second glass substrate towards the light source
Face.That is, the optical microstructures are between second glass substrate and the light source.At this point, in the display module
The array substrate and the display layer no setting is required the through-hole, reduce to the array substrate and the display layer
Technique requirement, reduces process flow, to reduce the production cost of the display module.
In one embodiment, first glass substrate is the light emission side for being located at the light source in the display module
Outermost glass substrate on direction.Second glass substrate is the light emission side side for being located at the light source in the display module
The glass substrate of upward innermost layer.
In conjunction with the 4th kind of implementation, in the 5th kind of implementation, the array substrate and the display layer are all made of
Transparent material.
The region that the optical microstructures project in the array substrate and the display layer is transparent, avoids institute
It states array substrate and the display layer has blocked the light of the light emitting mould group transmitting, so that light emitting mould group transmitting
Light can penetrate the display module, improve the utilization rate of the light of the light emitting mould group.
With reference to first aspect or any one into the 5th kind of implementation of the first implementation, it is realized at the 6th kind
In mode, the area of projection of the optical microstructures on one layer of glass substrate in the display module is M.The light source
The area of the projection on one layer of glass substrate in the display module is N.M is greater than or equal to N.
In the embodiment of the present application, the area of the optical microstructures is greater than or equal to the area of the light source, ensure that
The light that the light source is launched can be utilized by the optical microstructures, improve the utilization of the light of the light source transmitting
Rate.
With reference to first aspect or any one into the 5th kind of implementation of the first implementation, it is realized at the 7th kind
In mode, the light emitting mould group further includes printed circuit board.The printed circuit board and the optical microstructures are located at described
The two sides of light source, and the light source is installed on the printed circuit board.
In the embodiment of the present application, the printed circuit board in the light emitting mould group can be realized the light source and its
Electrical connection between his electronic component.Wherein, electrical connection includes that power supply connection one or both of is connected with signal.The print
Printed circuit board is the hardness printed circuit board, or the flexible printed circuit board.
In conjunction with the 7th kind of implementation, in the 8th kind of implementation, the light emitting mould group further includes eyeglass and surrounds
The lens barrel of the eyeglass periphery.The lens barrel is installed on the printed circuit board.The lens barrel is equipped with the groove.The mirror
Piece is partially housed in the groove.
In the embodiment of the present application, the lens barrel is for fixing the eyeglass.Wherein, in the conventional technology, the lens barrel
It not only needs to fix the eyeglass, it is also desirable to the glass substrate on the fixed optical element.In the embodiment of the present application, described
Lens barrel need to only fix the eyeglass, without the glass substrate on the fixation optical element.Therefore, the lens barrel compares traditional skill
The lens barrel shape narrows of art, reduce the volume of the light emitting mould group.The eyeglass is contained in the lens barrel, is made
The eyeglass can be protected by obtaining the lens barrel.
In conjunction with the 7th kind of implementation, in the 9th kind of implementation, the display module includes the top being oppositely arranged
And bottom end.The light emitting mould group is located at top.
In the embodiment of the present application, the light emitting mould group is located at top, that is, the light emitting mould group is located at the screen
The top end part of curtain component.When the screen assembly user oriented, top is towards upper, and bottom end is towards upper.The light emitting mould group
Positioned at top, meet the habit that user uses.
Second aspect, the application also provide a kind of terminal device.Terminal device includes shell and group of screens as described above
Part.The screen assembly is installed on the shell.
Terminal device provided by the present application includes the screen assembly, and the thickness of the screen assembly is smaller, occupies terminal
The space of equipment is small, so that terminal device has more spatial arrangement other structures.Also, the screen assembly reduces material
Cost, to reduce the Material Cost of terminal device.
Specific embodiment
Below in conjunction with the attached drawing in the application embodiment, the technical solution in the application embodiment is retouched
It states, it is clear that described embodiment is only a part of embodiment of the application, rather than whole embodiments.Not
In the case where conflict, the feature in presently filed embodiment and embodiment be can be combined with each other.Based on the reality in the application
Apply mode, every other embodiment obtained by those of ordinary skill in the art without making creative efforts,
It shall fall in the protection scope of this application.
It is a kind of structural schematic diagram of terminal device provided by the embodiments of the present application also referring to Fig. 1 and Fig. 2, Fig. 1;Figure
2 be the structural schematic diagram of screen assembly shown in Fig. 1.Terminal device can be mobile phone, tablet computer, electronic reader, notebook
The equipment such as computer, mobile unit, wearable device.In embodiments herein, retouched so that terminal device is mobile phone as an example
It writes.
Terminal device 100 includes shell 101 and screen assembly 102.Screen assembly 102 is installed on shell 101.Screen assembly
102 enable to terminal device 100 to realize the functions such as display and the three-dimensional information for obtaining object to be measured.
Screen assembly 102 includes display module 1021 and light emitting mould group 1022.Display module 1021 is for showing picture.
Light emitting mould group 1022 is for emitting the light through ovennodulation.Light emitting mould group 1022 can be used for 3 dimension imaging technology.Specifically,
Light emitting mould group 1022, which can carry out projection source to characterize, forms the light including shapes such as point, line or faces.That is, light is sent out
The light for penetrating the projection of mould group 1022 can be pattern light, also can be flight time (time of flight, TOF) transmitting
The light of the shape of forming face.In the embodiment of the present application, come so that the light that light emitting mould group 1022 projects is pattern light as an example
It is described.
In other embodiments, light emitting mould group 1022 also can be the light emitting mould group of flight time.That is, at other
In embodiment, light emitting mould group 1022 can continuously transmit light as object to be measured, and then the sensor in terminal device 100 connects
Receive the light that returns from object to be measured, obtained by detecting flight (round-trip) time of these transmittings and reception light object away from
From.
Terminal device 100 further includes light-receiving mould group 103.In one embodiment, terminal device 100 includes camera
104.Camera 104 includes light emitting mould group 1022 and light-receiving mould group 103, terminal device 100 is obtained to be measured right
The three-dimensional information of elephant.Light emitting mould group 1022 is used to issue detection light to object to be measured.Light-receiving mould group 103 for receive by
Survey the detection light that object reflection is returned.
The light and light-receiving mould for the known features point that terminal device 100 is projected away based on light emitting mould group 1022
The practical received subject surface to be measured of group 103 reflects the light of characteristic point, can restore the depth letter of subject surface to be measured
Breath, to obtain 3-D image;Wherein, subject surface to be measured reflects depth of the light based on subject surface to be measured of characteristic point
Difference will make the light of known features point that certain deformation occur, namely the light being reflected back carries the depth letter of object to be measured
Breath.For example, the light and light of the known features point that terminal device 100 can be projected away based on light emitting mould group 1022 connect
It receives the practical received subject surface to be measured of mould group 103 and reflects the deviation of the light of characteristic point between the two, it is to be measured to calculate
The depth information of subject surface.
When user is in using terminal equipment 100, display module 1021 generally faces user.User is able to use terminal and sets
Standby 100 viewing video etc..As shown in Figure 1, the direction of light emitting mould group 1022 and display module 1021 are towards identical.Accordingly
Ground, the direction of light-receiving mould group 103 and display module 1021 are towards identical.That is, the court in the Image Acquisition face of camera 104
To with display module 1021 towards identical.In the embodiment of the present application, with the direction and display module of light emitting mould group 1022
1021 towards being described for identical.That is, in the embodiment of the present application, camera 104 makes as front camera
With.At this point, camera is able to carry out recognition of face.
Wherein, display module 1021 surrounds the periphery of light-receiving mould group 103, improves the screen accounting of terminal device 100, makes
The display area for obtaining display module 1021 is bigger, improves the interest of terminal device 100.In other embodiments, light emitting
The direction of mould group 1022 can be opposite with the direction of display module 1021.That is, in other embodiments, the figure of camera 104
As the direction of collection surface and the direction of display module 1021 are opposite.Camera 104 can be used as rear camera.At this point,
Display module 1021 can be paved with the surface of 100 side of terminal device as far as possible, realize screen comprehensively.
Further, display module 1021 includes the top 11 and bottom end 12 being oppositely arranged.Light emitting mould group 1022 is located at
Top 11.As shown in Figure 1, two dotted lines are intended merely to substantially distinguish the region where top 11 and bottom end 12.Two dotted lines are simultaneously
The practical structures feature in display module 1021 is not represented.For user in using terminal equipment 100, top 11 is located at terminal device
100 upper half, bottom end are located at the lower half of terminal device 100.
In other embodiments, light emitting mould group 1022 can also be located at bottom end 12.In the embodiment of the present application, it is sent out with light
It penetrates mould group 1022 and is located at for top 11 and described.
In the embodiment of the present application, light emitting mould group 1022 is located at top 11, that is, light emitting mould group 1022 is located at screen
11, the top of component 102.When 102 user oriented of screen assembly, top 11 is towards upper, and bottom end 12 is towards upper.Light emitting mould
Group 1022 is located at top 11, meets the habit that user uses.
Wherein, display module 1021 further includes two or more layers glass substrate 13.Two or more layers glass substrate 13 is laminated
Setting.The setting of every interval of layer glass substrate 13.
Light emitting mould group 1022 includes optical element 21 and light source 22.Light source 22 is for emitting light.What light source 22 emitted
Light projects on optical element 21.Wherein, the light that optical element 21 is used to issue light source 22 is modulated.In the application reality
It applies in example, with optical element 21 to be carried out for diffraction optical element (diffractive optical elements, DOE)
It describes.That is, in the embodiment of the present application, being retouched so that the light that light emitting mould group 1022 projects is pattern light as an example
It writes.When optical element 21 is diffraction optical element, the light that light source 22 issues is scattered by optical element, and then obtains institute
The speckle pattern needed.Optical diffraction optical element is the diffraction principle based on light, using CAD, and passes through semiconductor
Chip manufacturing process, etching or nano impression mode generate stepped ramp type or continuous relief structure on substrate, formed it is coaxial reproduce,
And a kind of optical element with high diffraction efficiency.
In other embodiments, optical element 21 also can be diffuser.The light that light source 22 emits can pass through optics member
Part 21 is expanded, and then obtains required light.That is, in other embodiments, light emitting mould group 1022 is the flight time
In light emitting mould group.
The surface of one layer of glass substrate 13 towards light source 22 in display module 1021 is provided with optical microstructures 211.Light
It learns micro-structure 211 and forms optical element 21 at least department's glass substrate 13.That is, optical element 21 in display module 1021
Glass substrate 13 in one layer of glass substrate 13 and light emitting mould group 1022 is multiplexed.At this point, light emitting mould group 1022 can not wrap
Glass substrate 13 is included, or reduces one layer of glass substrate 13.
Optical element 21 and glass substrate 13 are respectively positioned on the light emission side of the light source 22 of light emitting mould group 1022.As shown in Fig. 2,
The direction of arrow indicates that light source 22 goes out the direction of light.The light that light source 22 emits is scattered by optical element 21, and then is obtained
Required pattern light.
As shown in Fig. 2, the quantity of optical microstructures 211 is multiple.Optical microstructures 211 are using micron or Nano grade
The micro-structure that technique obtains.In the embodiment of the present application, multiple optical microstructures 211 are for indicating this micro-structure.Wherein, micro- knot
Structure can be designed according to the light conditions of diffraction needed for light emitting mould group 1022 out.That is, in the embodiment of the present application, to optics
Size, shape and the interval of micro-structure 211 are not limited thereto.
Wherein, light source 22 is laser or light emitting diode.In the embodiment of the present application, light source 22 is sent out using vertical cavity surface
Penetrate laser or edge emitting laser diode so that light source 22 launch it is contour with high-photoelectric transformation efficiency and high-output power
Performance pulsed light, to provide the quality of the light of the transmitting of light emitting mould group 1022.
It specifically, in the embodiment of the present application, is vertical cavity surface emitting laser (vertical cavity with light source 22
Surface emitting laser, VCSEL) for described.Wherein, the spectral quality of vertical cavity surface emitting laser
Height, fast response time improve the quality of light emitting mould group 1022.
In the embodiment of the present application, by the way that the optical microstructures 211 in light emitting mould group 1022 are directly arranged in display module
On one layer of glass substrate 13 in 1021, on the one hand, reduce one layer of glass substrate 13 in light emitting mould group 1022, to subtract
The quantity for having lacked glass substrate 13 in screen assembly 102 reduces the Material Cost of screen assembly 102.Reduce screen assembly
102 Material Cost correspondingly also reduces the Material Cost of terminal device 100.
On the other hand, one layer of glass substrate 13 in display module 1021 and the glass substrate 13 in light emitting mould group 1022
Multiplexing, reduces one layer of glass substrate 13, to reduce the overall thickness of screen assembly 102.The overall thickness of screen assembly 102 subtracts
It is small, so that the space that screen assembly 102 occupies mobile terminal is small, so that terminal device 100 has other knots of more spatial arrangements
Structure.
The area of projection of the optical microstructures 211 on one layer of glass substrate 13 in display module 1021 is M.Light source 22
The area of the projection on one layer of glass substrate 13 in display module 1021 is N.M is greater than or equal to N.
In the embodiment of the present application, the area of optical microstructures 211 is greater than or equal to the area of light source 22, ensure that light source
22 light launched can be utilized by optical microstructures 211, improve the utilization rate of the light of the transmitting of light source 22.
Further, light emitting mould group 1022 further includes printed circuit board 23.Printed circuit board 23 and optical microstructures 211
Positioned at the two sides of light source 22, and light source 22 is installed on printed circuit board 23.
In the embodiment of the present application, the printed circuit board 23 in light emitting mould group 1022 can be realized light source 22 and other electricity
Electrical connection between subcomponent.Wherein, electrical connection includes that power supply connection one or both of is connected with signal.Printed circuit board
23 be rigid printed circuit board or flexible printed circuit board.
Further, please refer to figs. 2 and 3 together, and Fig. 3 is the enlarged diagram of part A structure in Fig. 2.Light emitting mould
Group 1022 further includes eyeglass 24 and the lens barrel 25 around 24 periphery of eyeglass.Lens barrel 25 is installed on printed circuit board 23.Lens barrel 25
Equipped with groove 251.Eyeglass 24 is partially housed in groove 251.
Wherein, eyeglass 24 is aspherics lens, diffraction optics toroidal lens or Fresnel toroidal lens, and eyeglass 24
Quantity be one or more.In the embodiment of the present application, with no restrictions to the quantity of eyeglass 24, it can be set according to actual demand
The quantity of eyeglass 24.In one embodiment, the center overlapping of axles of the central axis of eyeglass 24 and light source 22.As shown in Fig. 2, empty
Line indicates the central axis of eyeglass 24 or the central axis of light source 22.
In the embodiment of the present application, lens barrel 25 is used for fixing len 24.Wherein, in the conventional technology, lens barrel 25 not only needs
Want fixing len 24, it is also desirable to the glass substrate 13 on fixing optical element 21.In the embodiment of the present application, 25 need of lens barrel are solid
Horizontal glass piece 24, without the glass substrate 13 on fixing optical element 21.Therefore, lens barrel 25 compares 25 shape of lens barrel of traditional technology
Narrow, reduce the volume of light emitting mould group 1022, to save the inner space of terminal device 100.Eyeglass 24 accommodates
In in lens barrel 25, lens barrel 25 is enabled to protect eyeglass 24.
Further, referring to Figure 2 together and Fig. 4, Fig. 4 be display module 1021 shown in Fig. 2 schematic cross-section.Display
Mould group 1021 includes array substrate 14 and the display layer 15 being stacked with array substrate 14.Display layer 15 is for showing picture.
Display module 1021 further includes two or more layers glass substrate 13.Two or more layers glass substrate 13 is stacked.
Wherein, every interval of layer glass substrate 13 setting.First glass substrate 131 and the second glass substrate 132 are two or more layers glass
Layer glass substrate 13 in glass substrate 13.Light source 22 is located at one of the second glass substrate 132 far from the first glass substrate 131
Side.First glass substrate 131 is the exiting side that light source 22 emits beam.
In the embodiment of the present application, it is described so that display module 1021 includes layer glass substrate 13 as an example.That is,
Display module 1021 includes the second glass substrate 132, array substrate 14, display layer 15 and the first glass base being cascading
Plate 131.In other embodiments, display module 1021 also can include compound glass substrate 13.That is, in other embodiments
In, it can include one or more layers glass substrate 13 between the first glass substrate 131 and the second glass substrate 132.
Further, the first glass substrate 131 is outermost on the light emission side direction of light source 22 in display module 1021
The glass substrate 13 of layer.Second glass substrate 132 is to be located at innermost layer on the light emission side direction of light source 22 in display module 1021
Glass substrate 13.That is, in two or more layers glass substrate 13, the distance between the first glass substrate 131 and light source 22
Farthest, the distance between the second glass substrate 132 and light source 22 are nearest.
Further, referring to Figure 2 together, Fig. 4 and Fig. 5, Fig. 5 be screen assembly 102 shown in Fig. 2 in the first embodiment
Structural schematic diagram.Optical microstructures 211 are set to the first glass substrate 131 towards the surface of light source 22.That is, what application provided
In the first embodiment, optical microstructures 211 are between the first glass substrate 131 and light source 22 for screen assembly 102.
Wherein, the first glass substrate 131 is the glass cover-plate in display module 1021.Glass cover-plate can play isolation water
Divide the effect with oxygen, to protect display module 1021, to improve the quality of display module 1021.
Since the light that light emitting mould group 1022 projects needs where display module 1021, light emitting mould group 1022
Region be display module 1021 non-display area.At this point, optical microstructures 211 are set to the outermost glass of display module 1021
On substrate 13, on the direction along 22 light emission side of light source, the occupied space of other structures of light emitting mould group 1022 and display
The occupied spatial reuse of other structures in mould group 1021.
In the present embodiment, optical microstructures 211 are set on the outermost glass substrate 13 of display module 1021, a side
Face, the glass substrate 13 in glass substrate 13 and light emitting mould group 1022 in display module 1021 are multiplexed, and reduce light emitting
The thickness of mould group 1022.On the other hand, the occupied space of other structures in light emitting mould group 1022 and display module 1021
The middle occupied spatial reuse of other structures, to reduce the general thickness of screen assembly 102.
Further, array substrate 14 and display layer 15 are equipped with through-hole 16.16 accommodating portion light emitting mould group of through-hole
1022.Through-hole 16 provides space when being installed on display module 1021 for light emitting mould group 1022, so that display module 1021 and light
The spatial reuse of emitting mould train 1022 reduces the thickness of screen assembly 102.
Projection of the through-hole 16 on the first glass substrate 131 all throwing of the covering light source 22 on the first glass substrate 131
Shadow.That is, the light that light source 22 emits passes through through-hole 16, the structure barrier light source 22 of array substrate 14 and display layer 15 is avoided
Light, thus improve light source 22 transmitting light utilization rate.
Projection section or whole covering optical microstructures 211 of the through-hole 16 on the first glass substrate 131 are in the first glass
Projection on substrate 131.That is, after the light that light source 22 emits passes through through-hole 16, then it is projeced into optical microstructures 211.Through-hole 16
In the projection section on the first glass substrate 131 or all throwing of the covering optical microstructures 211 on the first glass substrate 131
Shadow ensure that the light across through-hole 16 can be all projeced on optical microstructures 211, to improve the light of the transmitting of light source 22
Utilization rate.
In the embodiment of the present application, light source 22, the position of through-hole 16 and optical microstructures 211 and size relation, so that light
The light that source 22 emits can be largely or entirely projeced on optical microstructures 211, improve the utilization of the light of the transmitting of light source 22
Rate.
Further, the center overlapping of axles of the central axis of through-hole 16 and optical microstructures 211, and the central axis of light source 22 with
The center overlapping of axles of through-hole 16.As illustrated in fig. 2 or fig. 5, dotted line indicates the central axis of through-hole, in optical microstructures 211 in figure
The central axis of mandrel or light source 22.
In the embodiment of the present application, the central axis of the central axis of light source 22, the central axis of through-hole 16 and optical microstructures 211
It is overlapped, so that light source 22 and optical microstructures 211 are during installation, in this way it is easy to determine whether installation site is correct, improves peace
Fill efficiency.
Further, in the embodiment of the present application, the openings of sizes of through-hole 16 is adapted with the size of lens barrel 25, so that light
When emitting mould train 1022 is installed in display module 1021, pass through the cooperation of size and 25 size of lens barrel that through-hole 16 is open
Position of the light emitting mould group 1022 with respect to display module 1021 is positioned, to improve the installation effectiveness of screen assembly 102.
In other embodiments, lens barrel 25 is equipped with the first label.Display module 1021 is equipped with the second label.First label with
Second label cooperation, so that one layer glass substrate 13 of the light source 22 in display module 1021 is completely covered in optical microstructures 211
On projection.That is, in other embodiments, screen assembly 102 in an assembling process, by the first label on lens barrel 25 with
The cooperation of the second label in display module 1021, enables light emitting mould group 1022 to be rapidly assembled in display module 1021
On.
Further, referring to Figure 2 together, Fig. 4 and Fig. 6, Fig. 6 be screen assembly 102 shown in Fig. 2 in a second embodiment
Structural schematic diagram.The most of technical solution content being identical with the first embodiment in the present embodiment repeats no more.Second implements
The difference of example and first embodiment is:
Optical microstructures 211 are set to the second glass substrate 132 towards the surface of light source 22.That is, optical microstructures 211
Between the second glass substrate 132 and light source 22.
In the embodiment of the present application, the stacking of optical microstructures 211 ground is set to table of second glass substrate 132 towards light source 22
Face.At this point, array substrate 14 and display layer 15 in display module 1021 no setting is required through-hole 16, reduces to array substrate 14
And the technique requirement of display layer 15, process flow is reduced, to reduce the production cost of display module 1021.
Further, array substrate 14 and display layer 15 are all made of transparent material.
The region that optical microstructures 211 project in array substrate 14 and display layer 15 is transparent, avoids array base
Plate 14 and display layer 15 have blocked the light of the transmitting of light emitting mould group 1022, the light that light emitting mould group 1022 is emitted
Through display module 1021, the utilization rate of the light of light emitting mould group 1022 is improved.
The application embodiment is described in detail above, principle of the specific case to the application used herein
And embodiment is expounded, the explanation of embodiment of above is merely used to help understand the present processes and its core is thought
Think;At the same time, for those skilled in the art, according to the thought of the application, in specific embodiments and applications
There will be changes, and to sum up, the contents of this specification should not be construed as limiting the present application.