CN106946444A - 3D glass-making processes - Google Patents
3D glass-making processes Download PDFInfo
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- CN106946444A CN106946444A CN201610817082.8A CN201610817082A CN106946444A CN 106946444 A CN106946444 A CN 106946444A CN 201610817082 A CN201610817082 A CN 201610817082A CN 106946444 A CN106946444 A CN 106946444A
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- glass
- glass substrates
- making processes
- forming devices
- laser
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Classifications
-
- C—CHEMISTRY; METALLURGY
- C03—GLASS; MINERAL OR SLAG WOOL
- C03B—MANUFACTURE, SHAPING, OR SUPPLEMENTARY PROCESSES
- C03B23/00—Re-forming shaped glass
- C03B23/02—Re-forming glass sheets
- C03B23/023—Re-forming glass sheets by bending
- C03B23/035—Re-forming glass sheets by bending using a gas cushion or by changing gas pressure, e.g. by applying vacuum or blowing for supporting the glass while bending
- C03B23/0352—Re-forming glass sheets by bending using a gas cushion or by changing gas pressure, e.g. by applying vacuum or blowing for supporting the glass while bending by suction or blowing out for providing the deformation force to bend the glass sheet
- C03B23/0357—Re-forming glass sheets by bending using a gas cushion or by changing gas pressure, e.g. by applying vacuum or blowing for supporting the glass while bending by suction or blowing out for providing the deformation force to bend the glass sheet by suction without blowing, e.g. with vacuum or by venturi effect
-
- B—PERFORMING OPERATIONS; TRANSPORTING
- B23—MACHINE TOOLS; METAL-WORKING NOT OTHERWISE PROVIDED FOR
- B23K—SOLDERING OR UNSOLDERING; WELDING; CLADDING OR PLATING BY SOLDERING OR WELDING; CUTTING BY APPLYING HEAT LOCALLY, e.g. FLAME CUTTING; WORKING BY LASER BEAM
- B23K26/00—Working by laser beam, e.g. welding, cutting or boring
- B23K26/36—Removing material
- B23K26/38—Removing material by boring or cutting
-
- C—CHEMISTRY; METALLURGY
- C22—METALLURGY; FERROUS OR NON-FERROUS ALLOYS; TREATMENT OF ALLOYS OR NON-FERROUS METALS
- C22C—ALLOYS
- C22C19/00—Alloys based on nickel or cobalt
- C22C19/03—Alloys based on nickel or cobalt based on nickel
- C22C19/05—Alloys based on nickel or cobalt based on nickel with chromium
- C22C19/051—Alloys based on nickel or cobalt based on nickel with chromium and Mo or W
- C22C19/055—Alloys based on nickel or cobalt based on nickel with chromium and Mo or W with the maximum Cr content being at least 20% but less than 30%
-
- C—CHEMISTRY; METALLURGY
- C22—METALLURGY; FERROUS OR NON-FERROUS ALLOYS; TREATMENT OF ALLOYS OR NON-FERROUS METALS
- C22C—ALLOYS
- C22C19/00—Alloys based on nickel or cobalt
- C22C19/03—Alloys based on nickel or cobalt based on nickel
- C22C19/05—Alloys based on nickel or cobalt based on nickel with chromium
- C22C19/051—Alloys based on nickel or cobalt based on nickel with chromium and Mo or W
- C22C19/056—Alloys based on nickel or cobalt based on nickel with chromium and Mo or W with the maximum Cr content being at least 10% but less than 20%
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- Chemical & Material Sciences (AREA)
- Engineering & Computer Science (AREA)
- Materials Engineering (AREA)
- Mechanical Engineering (AREA)
- Organic Chemistry (AREA)
- Metallurgy (AREA)
- Physics & Mathematics (AREA)
- Optics & Photonics (AREA)
- Plasma & Fusion (AREA)
- Re-Forming, After-Treatment, Cutting And Transporting Of Glass Products (AREA)
- Laser Beam Processing (AREA)
- Surface Treatment Of Glass (AREA)
Abstract
A kind of 3D glass-making processes, comprise the following steps：One 2D glass substrates are provided, borehole is carried out to 2D glass substrates by seamless laser cutting mode or the work such as precut, foregoing 2D glass substrates are inserted carried out in a 3D thermal forming devices it is moulding into 3D glass substrates, by the 3D glass substrates after shaping by being taken out in the former, the 3D glass products of 3D glass structures intensity and production with special surface texture or shape can be lifted by the manufacture method of the present invention and disqualification rate in technique is reduced.
Description
Technical field
The present invention relates to a kind of 3D glass-making processes, espespecially can to lift hand-held or mobile device 3D glass substrates strong for one kind
The 3D glass products of degree and production with special surface texture or shape simultaneously reduce the 3D glass manufactures of the disqualification rate in technique
Method.
Background technology
Existing 3D glass cover-plates are predominantly cut or drilled etc. by CNC toolroom machines and processed, and glass has in itself
Hard crisp characteristic, therefore the easily defective work of generation fragmentation when the processing such as being cut or being drilled by CNC toolroom machines, separately
Outside, those skilled in the art also have cuts substitution CNC toolroom machines by common laser, and current radium-shine cutting can generally be divided into ablation
Process (Ablation) and stealthy cutting (Stealth Dicing) two classes.The former is to concentrate radium-shine energy in very short time
It is allowed to evaporate in the tiny area of glass surface, but common laser cutting has and easily causes edge melting and can not be female from glass
The shortcoming that piece is removed；The latter is then concentrated on inside glass with radium-shine, forms modification layer, cutting trace will not be found out in glass surface
Mark.
The 3D glass cover-plates of existing curved surface mainly (are turned with male model master mold by hot pressing mode in proper temperature generally between heat
Move between point and softening point) it is laminated, glass substrate is entered the mode being molded in the space between master mold and male model and manufacture
3D cover plates, the heat pressing forming machines of male and female model can only glass hot transition temperature (Transition Temperature) into
Type, is close to or higher than the shaping of softening point temperature (Soft Point)~800 DEG C, die life can be caused to substantially reduce and be molded
Size (mainly thickness) uniformity is uncontrollable.
Also because relatively low forming temperature and equipment limit be unable to reach mould manifolding rate (for example can not output have
As there are raised/recessed font, logo product surface design in sandblasting face, wire-drawing surface or surface), another is well known
Defect is that more glass contact areas in technique will greatly increase the probability such as scraped and damaged, and feature die design is with graphite
For material, the impurity stomata in graphite can all increase the probability of output substandard product in forming process.
The difficulty that another 3D glass product is suffered from is decorated on 3D curved surfaces, and mobile phone glass needs just as
Have black or white ink as decoration, such decoration becomes extremely difficult on 3D glass, due to ink 3D surfaces without
Method uses traditional wire mark or tampon-printing process.Spraying method can only be used to be sprayed on ink after the first-class solidification of the glass of curved surface again
Ink is removed using laser carving mode；Or should not using exposure imaging technology after being sprayed using the whole face of photosensitive-ink/photoresistance
Region remove.
Therefore prior art most needs improved head to aim at again；
1. 2D glass how is precisely cut out with the size Control after sharp follow-up 3D shapings；
2. thermoforming machine can share graphite or alloy mould；
3. how exposure or laser carving technique are completed in an equipment.
The content of the invention
Therefore, it is the shortcoming of the above-mentioned prior art of solution, it is a primary object of the present invention to provide a kind of 3D glass cover-plates
Manufacture method.
For up to above-mentioned purpose, the present invention provides a kind of 3D glass-making processes, comprised the following steps：
One 2D glass substrates are provided, and 2D glass substrates carried out precut (Pre-cut) with seamless laser cutting mode
And borehole；
Foregoing 2D glass substrates are inserted in a 3D thermal forming devices and carry out plastotype；
By the 3D glass substrates after shaping by being taken out in the 3D thermal forming devices.
Wherein, oxidation reaction is prevented by passing to inert gas in 3D glass substrate formings processing, it is described
Inert gas is nitrogen, and carries out Slow cooling cooperation different glass characteristic progress cooling down by nitrogen.
Wherein, there is a silicon-carbide heaters, a vacuum in the 3D thermal forming devices heated to the 2D glass substrates
Heat inhales module, a refractory protection, an IR measuring temps unit, a nitrogen cooling device, and the silicon-carbide heaters are arranged at
The upper and lower or arranged on left and right sides of inside heating furnace cavity, also, heating-up temperature can be to 1000~1300 degree, and the refractory protection is set
The inside heating furnace cavity wall is placed in, it mainly reaches heat-insulated, insulation and other effects and ensures that warmed operating temperature can be maintained
1000 degree, also, the refractory protection is ceramic beaverboard or Ceramic Tiles, the Vacuum Heat is inhaled module and is arranged in the heating furnace
In portion's cavity, mainly to carry the mould and provide the work of pumping, the Vacuum Heat, which inhales module, has a graphite cake,
The graphite cake inhales the pumping work of shaping, the IR measuring temps to offer uniform heat corresponding with multiple holes of the mould
Unit is an infrared temperature measurement unit, is arranged in the inside heating furnace cavity, also, the IR measuring temp units are main
Carborundum heating can be fed back to according to glass technology demand selection suitable temperature ranges (400~1000 degree), and by measurement signal
Device carries out intelligent loop circuit control, or is connected with computer, and trip temperature enchashment monitoring analysis is entered by computer.
Wherein, the 3D glass-making processes also have a step：Multiple touch control electrodes are molded in the 3D glass substrates side
Layer, the plurality of touch control electrode includes a first electrode layer, a second electrode lay, a routing layer, a shielding layer, extremely in this step
A few insulating barrier and each other lamination setting, before aforesaid plurality of touch control electrode layer is mainly formed at by gold-tinted etch process or printing
State glass substrate side.
Wherein, the step：Precut (Pre-cut) is carried out to 2D glass substrates with seamless laser cutting mode and dug
Hole, the borehole technique, which need to arrange in pairs or groups, is removed clout using general Laser ablation (Ablation), and its laser species includes：
CW/Plus Type, and it is 1064nm that UV wavelength, which is 355nm or IR wavelength,.
Wherein, the step：Foregoing 2D glass substrates are inserted in a 3D thermal forming devices and carry out plastotype into 3D glass bases
Plate, the 3D thermal forming devices carry out plastotype by way of vacuum attraction and contactless force to the glass substrate, for 3D glass
Substrate thickness non-uniform areas or corner area, provide non-contacting lower pressure by a device and glass are brought into close contact into mould,
Overcome 3D thickness of glass special by this mobility of contactless force size and glass forced position and glass in high temperature is controlled
It is not bending region non-uniform phenomenon.
Wherein, step：Foregoing 2D glass substrates are inserted in a 3D thermal forming devices and carry out plastotype into 3D glass substrates, should
Also there is a molding to have, the molding die surface can be processed into sandblasting, wire drawing, laser line and various recessed in 3D thermal forming devices
Enter or raised word and mark (Logo).
Wherein, the material of the mould be a kind of nickel based super alloy, nickel content be 50~55%, chrome content 17~
21%th, niobium+tantalum 4.75~55%, molybdenum 2.8~3.3% and titanium 0.65~1.15%.
Wherein, the mould film cave surface has TiAlN and alundum (Al2O3) plated film.
Wherein, the 3D glass-making processes also have a step：Using modes such as spraying, coatings by heat fixed type ink, UV
Curable ink is evenly distributed on glass surface, and is exposed by a 3D laser explosures technique with an equipment complex or radium
Carver's skill once carries out divided glass substrate processing, and its processing is passed through with the alignment mark or glass substrate edge on support plate
CCD System Discriminations coordinate and calculating are to needing machining area to be exposed or laser carving.
Wherein, the 3D glass-making processes also have a step：Edge polishing, hole are carried out to the 3D glass substrates after shaping
The techniques such as hole edge polishing, mirror polish, chemical enhanced, antireflection (AR), anti-glare (AG) plated film.
And can further improve the structural strength of 3D glass substrates by 3D glass-making processes of the present invention and reduce system
Make the generation of disqualification rate.
Brief description of the drawings
Fig. 1：The step flow chart of 3D glass-making processes first embodiment of the present invention；
Fig. 2：The manufacture schematic diagram of 3D glass-making processes first embodiment of the present invention；
Fig. 3：The manufacture schematic diagram of 3D glass-making processes first embodiment of the present invention；
Fig. 4：The manufacture schematic diagram of 3D glass-making processes first embodiment of the present invention；
Fig. 4 a：The glass viscosity curve map of 3D glass-making processes first embodiment of the present invention；
Fig. 5：The step flow chart of 3D glass-making processes second embodiment of the present invention；
Fig. 6：The step flow chart of 3D glass-making processes 3rd embodiment of the present invention；
Fig. 7：The machining sketch chart of 3D glass-making processes 3rd embodiment of the present invention；
Fig. 8：The step flow chart of 3D glass-making processes fourth embodiment of the present invention；
Fig. 9：The schematic diagram of the embodiment of 3D glass-making processes the 5th of the present invention.
Description of reference numerals
1 2D glass substrates
2 moulds
21 holes
3 3D thermal forming devices (heating furnace)
31 silicon-carbide heaters
32 Vacuum Heats inhale module
33 refractory protections
34 IR measuring temp units
35 non-external force osculating elements
4 automatic equipments
41 first conveying groups
411 first transport mechanical arm
42 second conveying groups
421 second transport mechanical arm
43 heating furnaces
5 witness markers
6 laser beams
7 ink
8 3D glass substrates
Embodiment
The above-mentioned purpose and its structure of the present invention and characteristic functionally, the preferred embodiment according to appended accompanying drawing is given
Explanation.
Fig. 1,2,3,4,4a are referred to, is step flow chart, the system of the first embodiment of 3D glass-making processes of the present invention
Schematic diagram and glass viscosity curve map are made, as illustrated, the 3D glass-making processes comprise the following steps：
S1：One 2D glass substrates are provided, and precut (Pre- is carried out to 2D glass substrates with seamless laser cutting mode
) and borehole cut；
The one commercially available glass substrate in 2D states is provided, and borehole is first carried out to the glass substrate by seamless laser cutting
Or the work such as cut, cut size and borehole must consider 3D be molded after size, including glass swelling shrinks and finished product and mould
The steric hindrance phenomenon of tool, it is to avoid because steric hindrance causes finished product not removed after shaping by mould；The seamless cutting
(Perfect Cleave) is a kind of application using ultra-short pulse laser, because Cutting Road (Kerf) width has tapered to zero,
Therefore cutting accuracy is high, machine tool apparatus and the ability of other conventional lasers is exceeded well over, using seamless cutting technique, from glass
Inside is split, but surface is totally smooth, does not have slag splash, is very different with the laser cutting of traditional cognitive, and can
Improve conventional art and produced by CNC processing machines when 2D glass substrates processs and ruptured and the problems such as structural strength is reduced.
The borehole technique, which need to arrange in pairs or groups, is removed clout using general Laser ablation (Ablation), its laser species bag
Include：CW/Plus Type, and it is 1064nm that UV wavelength, which is 355nm or IR wavelength,.
In seamless laser cutting process, wavelength can be focused on a point by the laser beam of glass by object lens,
Then the light beam is scanned along line of cut.Optical system used herein has high focusing performance, can be optical pressure
Be reduced to diffraction limit, thus it is high repeat, that the laser beam of short pulse is temporally and spatially compressed near focal point is very small
Region, with very high peak power density.When can be by the laser beam of glass in compression process, peak value luminous energy be close
When degree exceedes some expansion value, glass starts high-absorbility occur to laser beam, therefore optimization optical system and laser light
The characteristic of beam, can better control over the expansion value of optical density, only exceed the mesh of expansion value in inside glass, near focal point reach
, and the adjustment of expansion value can regard laser beam as Gaussian beam to describe, Laser Focusing is limited to diffraction limit (following diffraction
Limit formula), when expansion of laser light light beam, smaller focus can be obtained, the high energy density of comparison and processing essence is obtained
Degree, but now the depth of focus but shoals (formula of the following depth of focus), therefore become that the processing of shallow-layer can only be done, in processing
, can only be with shorter wavelengths of laser come reached purpose if to do the processing of same precision when comparing thick article, therefore specify
Lasing condition under (beam diameter, transverse mode and beam quality M2 values), by extending depth of focus or multifocal diffraction piece, then with
Lens focus, you can under the focus size of diffraction limit, extends the depth of focus, so just can be with laser beam optionally
Inside glass locality is processed, without destroying glass surface and edge, in the region of laser beam processing, had
Metamorphic layer is formed, and metamorphic layer is as a crack starting point, and crack is vertically elongated, is extended above and below glass front and rear surfaces.It is seamless to swash
Light cutting splits target material from inside, is cut with common laser entirely different from glass outer cutting material.
Diffraction limit formula
L：Focal length λ：Wavelength D：Incident light diameter M2：Laser beam quality D.L.Spot size：The focus size depth of focus is public
Formula：
L：Focal length λ：Wavelength D：Incident light diameter D.O.F.：The depth of focus
S2：Foregoing 2D glass substrates are inserted in a 3D thermal forming devices and carry out plastotype into 3D glass substrates；
The glass substrate is inserted in a graphite jig with surface coating and the 2D glass substrates 1 are added
Heat, the VISCOUS FLOW of glass material (non-newtonian fluid) is a thermo-activation process, wherein, Q is activation energy, and T is temperature, and R is
Mole gas constant and A are approximately a constant.The characteristics of VISCOUS FLOW of non-crystalline material and Arrhenius behaviors have deviation：
(in liquid condition) under high temperature, Q changes from a high value Q at a lower temperature (in glassy state)HTo a higher temperature
Under lower value QL.According to this change, to divide non-crystalline material.
Under conditions of strong:QH-QL<QL or
Under conditions of crisp:QH-QL≥QL.
μ=AeQ/RT
μ=A1·T·[1+A2·eB/RT]·[1+C·eD/RT]
The viscosity of non-crystalline material by a two exponential equation formulas by relatively accurately being described：
Wherein, including constant A1, A2, B, C and D are related to the thermodynamic parameter of the associative key of non-crystalline material.
If temperature is near glass transition temperature, TgThis equation can pass through Vogel-Fulcher-
Tammann (VFT) equation approximate equations (VFT) are represented.
If temperature is less than glass transition temperature, T ＜ ＜ Tg, latter two right exponential equation formula is reduced to one
Arrhenius Equation：
And because QH=Hd+Hm
Wherein, HdIt is the TiFe_xM_y alloy (being referred to as configuron S) and H of scission of linkmIt is that it moves enthalpy.When temperature is less than vitrifying
During transition temperature, T<Tg, the activation energy of its viscosity is high, because non-crystalline material is complete in glassy state and most of associative key.
If temperature is above glass transformation temperature, T ＞ ＞ Tg, the activation energy of its viscosity is low, because non-crystalline material is melt
Change and its most of associative key fracture, this is conducive to flowing.The selection of forming temperature depends on 3D glass finished-product shapes, such as double
The 3D glass of side folding (2-side folding), can be completed compared with high viscosity, on the contrary, the product with complex surface requirement
The 3D products of such as sandblasting, wire-drawing surface are accomplished by being molded under relatively low viscous state.
Also there is a molding tool 2, the surface of mould 2 can be processed into sandblasting, wire drawing, swash in the 3D thermal forming devices
Light line and various recessed or raised word and Logo.
Region in uneven thickness or corner area, pass through a device when being in 3D glass substrates 8 for 2D glass substrates 1 are moulding
Non-contacting lower pressure is provided glass is brought into close contact mould, by this contactless force size of control and glass forced position and glass
Mobility of the glass in high temperature overcomes the thickness of 3D glass substrates 8 particularly bending region non-uniform phenomenon, by imposing gas
Or direction and strength of the non-direct contact power such as plasma-based or magnetic force by shape of product to ad-hoc location and by calculating are to 2D glass
Substrate 1, which presses to the surface of 2D glass substrates 1, to be made it closely be attached to mould and then is molded into 3D glass substrates 8.
The 3D thermal forming devices 3 are a heating furnace 3, resistance to a silicon-carbide heaters 31, Vacuum Heat suction module 32, one
Fiery protective layer 33, an IR measuring temps unit 34, a nitrogen cooling device, non-external force osculating element 35.
The silicon-carbide heaters 31 are arranged at the upper and lower or arranged on left and right sides of the internal cavity of heating furnace 3, also, heating
Temperature can be to 1000~1300 degree, and the refractory protection 33 is arranged at the internal cavity wall of heating furnace 3, its mainly reach every
Heat, insulation and other effects simultaneously ensure that warmed operating temperature can maintain 800-1000 degree, also, the refractory protection 33 is fine for ceramics
Tie up plate or Ceramic Tiles any of which.
The Vacuum Heat is inhaled module 32 and is arranged in the internal cavity of heating furnace 3, mainly to carry the mould simultaneously
And the work of pumping is provided, the Vacuum Heat, which inhales module 32, has a graphite cake 321, and the graphite cake 321 is used to and the mould 2
Multiple holes 21 correspondence provide uniform heat inhale shaping pumping work.
The IR measuring temps unit 34 is arranged in the internal cavity of heating furnace 3 for an infrared temperature measurement unit 34,
And the IR measuring temps unit 34 can mainly select appropriate wavelength range (400~1000 degree) according to glass technology demand, and
Measurement signal is fed back to silicon-carbide heaters 31 and carries out intelligent loop circuit control, or is connected and is carried out by computer with computer
Temperature enchashment monitoring analysis.
The material of the mould 2 be a kind of nickel based super alloy, nickel content be 50~55%, chrome content 17~21%,
Niobium+tantalum 4.75~55%, molybdenum 2.8~3.3% and titanium 0.65~1.15%, also, the molding die surface has nitridation
Aluminium titanium and the multi-level vacuum coating of alundum (Al2O3) further improve the mold use life-span as protective layer.
Thermoforming can be carried out when the 2D glass substrates 1 are heated to soften to annealing temperature, this of mould 2 is utilized
Some holes hole 21 carries out pumping work, the glass substrate 1 is attached to the inwall of mould 2, and contacted by using non-external force
Unit 35 impose the non-direct contact such as gas or plasma-based or magnetic force power any of which mode the glass substrate 1 is pressed to
The mould 2 is interior to pressurize and then makes the inner surface aftershaping that the glass substrate 1 is more brought into close contact the mould 2 into 3D glass
Substrate 8.
In the processing and forming of 2D glass substrates 1, inert gas is passed to by nitrogen cooling device (not shown) and prevented
Oxidation reaction occurs, and the inert gas is nitrogen, and Slow cooling cooperation different glass characteristic can be carried out by nitrogen
Carry out cooling down.
S3：Finally by the 3D glass substrates after shaping by being taken out in the 3D thermal forming devices.
After the heating plastotype work of foregoing 2D glass substrates 1 completes into 3D glass substrates 8 and cools down, by it by the shaping
Taken out in mould 2, complete the manufacturing operation of 3D glass substrates 8.
Referring to Fig. 5, the step flow chart of the second embodiment for 3D glass-making processes of the present invention, as illustrated, institute
3D glass-making processes are stated to comprise the following steps：
S1：One 2D glass substrates are provided, and precut (Pre- is carried out to 2D glass substrates with seamless laser cutting mode
) and borehole cut；
S2：Foregoing 2D glass substrates are inserted in a 3D thermal forming devices and carry out plastotype into 3D glass substrates；
S3：By the 3D glass substrates after shaping by being taken out in the 3D thermal forming devices；
The present embodiment part-structure technical characteristic is identical with aforementioned first embodiment, therefore will not be described in great detail herein, still, this
Embodiment and the difference of aforementioned first embodiment are in also has a step in the present embodiment：
S4：Edge polishing, hole edge polishing, mirror polish, chemical enhanced, anti-reflective are carried out to the 3D glass substrates after shaping
Penetrate the techniques such as (AR), anti-glare (AG) plated film.
The surface of 3D glass substrates 8 and edge and the edge of hole 21 after shaping is rebuild by way of polishing, with
And specially treated is carried out to surface by chemical enhanced, antireflection (AR), anti-glare (AG) plated film.
Fig. 6,7 are referred to, are the step flow and machining sketch chart of the 3rd embodiment of 3D glass-making processes of the present invention,
As illustrated, the 3D glass-making processes comprise the following steps：
S1：One 2D glass substrates are provided, and precut (Pre- is carried out to 2D glass substrates with seamless laser cutting mode
) and borehole cut；
S2：Foregoing 2D glass substrates are inserted in a 3D thermal forming devices and carry out plastotype into 3D glass substrates；
S3：By the 3D glass substrates after shaping by being taken out in the 3D thermal forming devices；
S4：Edge polishing, hole edge polishing, mirror polish, chemical enhanced, anti-reflective are carried out to the 3D glass substrates after shaping
Penetrate the techniques such as (AR), anti-glare (AG) plated film；
The present embodiment part-structure technical characteristic is identical with aforementioned second embodiment, therefore will not be described in great detail herein, still, this
Embodiment and the difference of aforementioned second embodiment are in also has a step in the present embodiment：
S5：Heat fixed type ink, UV curable inks are evenly distributed on glass surface using modes such as spraying, coatings.
Heat fixed type ink or UV curable inks 7 are evenly distributed on the table of 3D glass substrates 8 using modes such as spraying, coatings
Face, after these 3D glass substrates 8 are placed on above the support plate of witness marker 5, utilize witness marker 5 or 3D glass substrates 8
Edge is anchor point, and control laser beam 6 removes unwanted ink 7, and this step can single treatment (laser carving) multi-disc 3D glass
Glass substrate 8,3D glass substrates 8 are removed from support plate can obtain the glass base of the tool 3D aspects with decorative ink/photoresistance
Plate 1.
Previous process can be exposed by an equipment complex or laser carving technique once carries out multi-disc 3D glass substrates 8 and added
Work, it is to needing with the alignment mark on support plate or the edge of 3D glass substrates 8 by CCD System Discriminations coordinate and calculating that it, which is processed,
Machining area is wanted to be exposed or laser carving.
Referring to Fig. 8, the step flow chart of the fourth embodiment for 3D glass-making processes of the present invention, as illustrated, institute
3D glass-making processes are stated to comprise the following steps：
S1：One 2D glass substrates are provided, and precut (Pre- is carried out to 2D glass substrates with seamless laser cutting mode
) and borehole cut；
S2：Foregoing 2D glass substrates are inserted in a 3D thermal forming devices and carry out plastotype into 3D glass substrates；
S3：By the 3D glass substrates after shaping by being taken out in the 3D thermal forming devices；
S4：Edge polishing, hole edge polishing, mirror polish, chemical enhanced, anti-reflective are carried out to the 3D glass substrates after shaping
Penetrate the techniques such as (AR), anti-glare (AG) plated film；
S5：Heat fixed type ink, UV curable inks are evenly distributed on glass surface using modes such as spraying, coatings；
The present embodiment part-structure technical characteristic is identical with aforementioned first embodiment, therefore will not be described in great detail herein, still, this
Embodiment and the difference of aforementioned first embodiment are in also has a step in the present embodiment：
S6：In the 3D glass substrates side molding touch control electrode layer；
These touch control electrode layers include：One first electrode layer, a second electrode lay, a routing layer, a shielding layer, at least one
Insulating barrier and each other lamination are set, and because touch control electrode layer belongs to common knowledge, therefore will not be described in great detail herein.
Aforesaid plurality of touch control electrode layer mainly passes through gold-tinted etch process or printing or 3D laser explosure technique any of which
The mode of kind is formed at the foregoing side of 3D glass substrates 8, and the 3D laser explosures technique can be exposed or radium by an equipment complex
Carver's skill once carries out multi-disc 3D glass substrates 8 and processed, and its processing is with the alignment mark on support plate or the side of 3D glass substrates 8
Edge is by CCD System Discriminations coordinate and calculates to needing machining area to be exposed or laser carving.
Referring to Fig. 9, the schematic diagram of the 5th embodiment for 3D glass-making processes of the present invention, as illustrated, this implementation
Example mainly provides a kind of 3D glass-making processes full-automatic implementation explanation, and the automatic equipment 4 has one first conveying
41, one second conveying group 42 of group and multiple heating furnaces 43, the first conveying group 41 and the second conveying group 42 are divided into these and added
The hot both sides of stove 43, the first conveying group 41 also has one first to transport mechanical arm 411, and the second conveying group 42 also has one second
Mechanical arm 421 is transported, the glass substrate 1 that the first transport mechanical arm 411 is first intended to process plastotype is sent into these heating furnaces 43
Heated and plastotype, after work to be done again by the second conveying group 42 second transport mechanical arm 421 by the glass substrate 1 by
Taken out in these heating furnaces 43 and be transported to subsequent work area.
Structure produces broken when can improve hand-held prior art or mobile device manufacture by 3D glass-making processes of the present invention
Damage the shortcoming of reduction structural strength and lift the qualification rate of product.
Claims (11)
1. a kind of 3D glass-making processes, it is characterised in that comprise the following steps：
One 2D glass substrates are provided, and precut and borehole is carried out to 2D glass substrates with seamless laser cutting mode；
Foregoing 2D glass substrates are inserted in a 3D thermal forming devices and carry out plastotype into 3D glass substrates；
By the 3D glass substrates after shaping by being taken out in the 3D thermal forming devices.
2. 3D glass-making processes as claimed in claim 1, it is characterised in that lead in 3D glass substrate formings processing
Cross and pass to inert gas and prevent oxidation reaction, the inert gas is nitrogen, and Slow cooling is carried out by nitrogen and match somebody with somebody
Close different glass characteristic and carry out cooling down.
3. 3D glass-making processes as claimed in claim 1, it is characterised in that also there is one one-tenth in the 3D thermal forming devices
Pattern has, and the material of the mould is a kind of nickel based super alloy, and nickel content is 50~55%, chrome content 17~21%, niobium+tantalum
4.75~55%, molybdenum 2.8~3.3% and titanium 0.65~1.15%.
4. 3D glass-making processes as claimed in claim 1, it is characterised in that also there is one one-tenth in the 3D thermal forming devices
Pattern has, and the mould film cave surface has TiAlN and alundum (Al2O3) plated film.
5. 3D glass-making processes as claimed in claim 1, it is characterised in that the 3D heat heated to the 3D glass substrates
There is a silicon-carbide heaters, a Vacuum Heat to inhale module, a refractory protection, an IR measuring temps unit, one in former
Nitrogen cooling device, a molding tool, the silicon-carbide heaters are arranged at upper and lower or left and right the two of inside heating furnace cavity
Side, also, heating-up temperature, to 1000~1300 degree, the refractory protection is arranged at the inside heating furnace cavity wall, and its is main
Reach heat-insulated and insulation effect and ensure that warmed operating temperature maintains 1000 degree, also, the refractory protection is fine for ceramics
Plate or Ceramic Tiles are tieed up, the Vacuum Heat is inhaled module and is arranged in the inside heating furnace cavity, mainly to carry the mould
And the work of pumping is provided, the Vacuum Heat, which inhales module, has a graphite cake, and the graphite cake is to multiple with the mould
Hole correspondence provides the pumping work that uniform heat inhales shaping, and the IR measuring temps unit is an infrared temperature measurement unit, if
It is placed in the inside heating furnace cavity, also, the IR measuring temps unit mainly can be according to the suitable temperature of glass technology demand selection
Scope is spent, and measurement signal is fed back to silicon-carbide heaters and carries out intelligent loop circuit control, or is connected with computer, by counting
Calculation machine enters trip temperature enchashment monitoring analysis.
6. 3D glass-making processes as claimed in claim 1, it is characterised in that also with a step：In the 3D glass substrates
Side be molded the plurality of touch control electrode in multiple touch control electrode layers, this step include a first electrode layer, a second electrode lay,
One routing layer, a shielding layer, at least an insulating barrier and lamination setting each other, aforesaid plurality of touch control electrode layer are mainly lost by gold-tinted
Carving technology or printing are formed at foregoing glass substrate side.
7. 3D glass-making processes as claimed in claim 1, it is characterised in that the step：With seamless laser cutting mode
Precut and borehole is carried out to 2D glass substrates, the borehole technique, which need to arrange in pairs or groups, is removed clout using general Laser ablation,
Its laser species includes：CW/Plus Type, and it is 1064nm that UV wavelength, which is UV355nm or IR wavelength,.
8. 3D glass-making processes as claimed in claim 1, it is characterised in that the step：Foregoing 3D glass substrates are put
Enter in a 3D thermal forming devices and carry out plastotype, the 3D thermal forming devices are by way of vacuum attraction and contactless force to the 3D glass
Glass substrate carries out plastotype, for 3D thickness of glass substrate non-uniform areas or corner area, provides non-contacting by a device
Glass is brought into close contact mould by lower pressure, by controlling this contactless force size and glass forced position and glass in high temperature
Mobility overcomes 3D thickness of glass particularly bending region non-uniform phenomenon.
9. 3D glass-making processes as claimed in claim 1, it is characterised in that step：Foregoing 2D glass substrates are inserted one
Plastotype is carried out in 3D thermal forming devices into 3D glass substrates, also there is a molding to have, the shaping mould in the 3D thermal forming devices
Tool is surface-treated into sandblasting, wire drawing, laser line and various recessed or raised word and mark.
10. 3D glass-making processes as claimed in claim 1, it is characterised in that also with a step：Utilize spraying or coating
Mode heat fixed type ink, UV curable inks are evenly distributed on glass surface, and by a 3D laser explosure techniques with one
Equipment complex is exposed or laser carving technique once carries out divided glass substrate processing, and it is processed with the alignment mark on support plate
Or glass substrate edge is by CCD System Discriminations coordinate and calculates to needing machining area to be exposed or laser carving.
11. 3D glass-making processes as claimed in claim 10, it is characterised in that also with a step：To the 3D after shaping
The technique that glass substrate carries out edge polishing, hole edge polishing, mirror polish, chemical enhanced, antireflection or anti-glare plated film.
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| CN201610817082.8A CN106946444A (en) | 2016-09-12 | 2016-09-12 | 3D glass-making processes |
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| CN201610817082.8A CN106946444A (en) | 2016-09-12 | 2016-09-12 | 3D glass-making processes |
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| CN109956677A (en) * | 2019-04-30 | 2019-07-02 | 浙江星星科技股份有限公司 | A kind of spraying method of 3D curved face display panel |
| CN110183101B (en) * | 2019-06-04 | 2022-02-01 | 蓝思科技（长沙）有限公司 | Processing method of glass product |
| CN110183101A (en) * | 2019-06-04 | 2019-08-30 | 蓝思科技（长沙）有限公司 | A kind of processing method of glass product |
| CN110288909A (en) * | 2019-06-11 | 2019-09-27 | 武汉华星光电半导体显示技术有限公司 | A kind of bend glass cover board and preparation method thereof, flexible display device |
| CN112694260B (en) * | 2019-10-23 | 2021-12-07 | 比亚迪股份有限公司 | Glass piece and preparation method and device thereof |
| CN112694260A (en) * | 2019-10-23 | 2021-04-23 | 比亚迪股份有限公司 | Glass piece and preparation method and device thereof |
| CN113045220A (en) * | 2019-12-27 | 2021-06-29 | 比亚迪股份有限公司 | Chemical strengthening method for glass with different thicknesses and glass with different thicknesses |
| CN113045220B (en) * | 2019-12-27 | 2022-03-18 | 比亚迪股份有限公司 | Chemical strengthening method for glass with different thicknesses and glass with different thicknesses |
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| CN114772911A (en) * | 2022-04-19 | 2022-07-22 | 维达力实业（赤壁）有限公司 | Anti-glare glass, manufacturing method thereof and electronic equipment |
| CN114772911B (en) * | 2022-04-19 | 2023-11-28 | 维达力科技股份有限公司 | Anti-glare glass, manufacturing method thereof and electronic equipment |
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Application publication date: 20170714 |