CN101973693A - Method for preparing isolated supporting point array between vacuum glass substrates by screen printing - Google Patents
Method for preparing isolated supporting point array between vacuum glass substrates by screen printing Download PDFInfo
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- CN101973693A CN101973693A CN2010105119339A CN201010511933A CN101973693A CN 101973693 A CN101973693 A CN 101973693A CN 2010105119339 A CN2010105119339 A CN 2010105119339A CN 201010511933 A CN201010511933 A CN 201010511933A CN 101973693 A CN101973693 A CN 101973693A
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Abstract
The invention discloses a method for preparing an isolated supporting point array between front and rear vacuum glass substrates by using screen printing equipment. The method comprises the following steps of: preparing low-melting glass powder into screen printing size, printing on the front glass substrate by using screen printing, and preparing the isolated supporting point array between vacuum glass panels by drying, sintering and other processes, wherein the diameter of each cylindrical point is 0.1 to 1.0mm; the thickness is 20 to 250 mu m; and longitudinal and transverse spacing between the points is 20 to 100mm. A sealing layer for sealing the edges of the vacuum glass is prepared on the rear glass substrate; the softening temperature of the used low-melting glass powder is 3 to 30 DEG C lower than that of the low-melting glass powder for preparing the supporting point array; and the thickness of the isolated supporting point is 1 to 20 mu m higher than that of the sealing layer on the edges of the vacuum glass. Under the action of the sealing temperature of the sealing layer on the edges of the vacuum glass and clamp pressure, the deformation of a supporting point sintered body is slightly lower than that of a sintered body on the edges of the sealing layer, and each supporting point in the supporting point array can be contacted with the front and rear glass substrates and is uniformly stressed on the premise of realizing edge airtight seal on the edges.
Description
Affiliated technical field
The present invention relates to a kind of silk screen printing and prepare the method for isolating the point of suppon array between the vacuum glass substrate.Vacuum glass is meant between two or the multi-disc glass spaced staggered relatively, and a plurality of small isolation point of suppon are set between sheet glass and sheet glass form lattice arrays, through behind the exhaust sealing, form the vacuum tight cavity between sheet glass and the sheet, obtain a kind of heat insulation, transparent plate material that sound-proofing properties is excellent.Be used for buildings and a plurality of technical fields such as transportation means door and window, cooling apparatus viewing window.The present invention relates generally to and isolates the novel method that supports the dot matrix making between the vacuum glass substrate a kind of the preparation.
Background technology
At present, it is similar substantially to relate to the structure of vacuum glass in the technique known.Fig. 1 is typical vacuum glass structure, and A is a prebasal plate glass among Fig. 1; B is a metacoxa glass; A is the isolation point of suppon between the forward and backward glass substrate; B represents the sealing layer of sealing-in prebasal plate glass A and metacoxa glass B; F is a venting hole.The cavity gap that forms between two sheet glass is a vacuum.
Exist in the known vacuum glass manufacturing technology and isolate point of suppon manufacture craft defective:
Between two or multi-disc glass, metal or high molecular isolation point of suppon a are set in the technique known, generally need place a diameter 0.5mm, the isolation point of suppon of the cylinder shape of high 0.2mm or other shape every 20-40mm.Glass substrate and glass-based edges of boards portion make the gap between glass substrate and the glass substrate be in vacuum state with low melting glass or organic adhesive sealing through sealing after the exhaust, make vacuum glass.
The vacuum glass that seals with low melting glass between glass substrate and the glass substrate, general with the isolation point of suppon of metal cylinder as vacuum glass, because glass surface unfairness and the not parallel and unfairness of isolation point of suppon metal cylinder upper and lower surface, the right cylinder that usually causes isolating support tilts, thereby make isolating points dislocation or with sheet glass between just some contact or the line contact, rather than contact by the face that design needs.The right cylinder dislocation of isolate supporting, some contact or line contact all will cause vacuum glass stress concentration and mechanical strength and work-ing life of directly breaking or reducing vacuum glass in manufacturing processed.In addition, the isolation point of suppon is opaque, influences the attractive in appearance of product; Isolating point of suppon is metal, and thermal conductivity is big, if can will isolate point of suppon material inorganic materials, then the thermal conductivity of vacuum glass product will reduce greatly.
With the isolation upholder of macromolecular material as vacuum glass, because the upper limit temperature of heat tolerance of general macromolecular material is lower than 250 ℃, therefore, the sealing material of make isolating the sealing-in limit portion that the vacuum glass of upholder uses with macromolecular material generally can only be an organic adhesive.The vacuum glass of Zhi Zaoing in use produces tiny crack owing to organic adhesive is easy to reasons such as embrittlement or organic adhesive inherent aging blemiss in cold winter in this way, causes leaking gas and the effect of loss of vacuum glass.
In addition, no matter be the isolation upholder of metal or macromolecular material because it is not only thin but also many to isolate upholder, pile up time-consuming, fixing difficult, complex manufacturing technology.
Summary of the invention
Propose a kind of silk screen printing and prepare before and after the vacuum glass and isolate the method that supports dot matrix between the glass substrate in order to overcome aforementioned not enough the present invention that existing metal and macromolecular material isolate point of suppon as vacuum glass.
The vacuum glass faceplate making method that the present invention proposes comprises following key step:
1. with size cutting, edging, the cleaning on request of glass raw sheet.
2. making diameter with mechanical drill or laser-beam drilling machine on a glass sheets is the venting hole of 1-5mm, and this sheet glass is called prebasal plate glass, and correspondingly, another sheet glass is called metacoxa glass.
3. isolate the point of suppon array on glass making of metacoxa of method for printing screen.The non-crystalline type low-melting-point glass powder (afterwards being called low-melting-point glass powder M) and the organic solution that are slightly less than the thermal expansivity of face glass with thermal expansivity are mixed with the slurry that a kind of rheological is suitable for silk screen printing.Use method for printing screen then about metacoxa printing diameter on glass 0.5-1.5mm, the cylindric wet film lattice array of the about 30-250 μ of thickness m, each idea spacing distance in length and breadth are 20-100mm.Through on the glass substrate of back, forming the array that isolation point of suppon a as shown in Figure 2 forms behind super-dry, the sintering.The diameter of this sintered compact is 0.1-1.0mm, and thickness is 20-250 μ m, the sealing-in floor height 1-20 μ m that uses than vacuum glass faceplate sealing-in limit portion.
4. will be used for front glass substrate and the back glass substrate another kind of non-crystalline type low-melting-point glass powder (afterwards being called low-melting-point glass powder N) of sealing be mixed with can silk screen printing slurry, regulate the viscosity and the rheological of slurry, on the front glass substrate limit with method for printing screen around print the wide about 5mm of one deck, the banded wet film of the thick glass powder with low melting point slurry of thick about 30-300 μ m.Through on sheet glass, forming b as shown in Figure 3 after the drying and sintering, be used for the low melting glass rete of seal glass edges of boards portion, abbreviate sealing layer as.
Front glass substrate and back glass substrate is superimposed face-to-face 5., the face of isolating point of suppon is promptly arranged and have the face of sealing layer staggered relatively.Getter is put near venting hole corner.Periphery with heat-resisting elastic mechanical clamp clamps face glass, anchor clamps will guarantee that the face glass periphery is stressed evenly, and be subjected to thermal softening isolating point of suppon and sealing layer, can continue maintenance during forward and backward glass substrate pitch smaller and give forward and backward glass substrate uniform pressure.Heat the sealing temperature that reaches the sealing layer of making of low-melting-point glass N through intermittent type electrical heater or grill-hearth travelling oven then, be generally 380-500 ℃, under this temperature, the isolation point of suppon of making of low-melting-point glass M sintering also can soften deformation under stressed effect, because the thickness of point of suppon is a little more than the thickness 1-20 μ m of limit portion sealing layer, under the chucking pressure effect, point of suppon sintered compact deformation quantity under synthermal is a little less than the deformation quantity of limit portion sealing layer sintered compact, guaranteed like this to realize under the prerequisite of hermetic seal in limit portion, each point of suppon all can contact with front-back baseboard in the point of suppon array, stressed evenly, overcome the defective of each point unbalance stress in existing metal support height is inconsistent and front and back glass baseplate surface unfairness brings stress concentration and the point of suppon array.The sealing temperature of the sealing layer of making at low-melting-point glass powder N kept 1-15 minute, evenly reduced to room temperature then.Finish the making and the hermetic seal of limit portion of vacuum glass point of suppon.
One of step 3,4, key problem in technology of 5 are to make the low-melting-point glass powder M that isolates upholder and the difference of low-melting-point glass powder N material property.Low-melting-point glass powder M has similar thermomechanical property with low-melting-point glass powder N, here said thermomechanical property is meant: the sample behind the sintering is being subjected at the uniform velocity heating under the constant external force, behind the softening temperature of temperature greater than glass of sample, measure the deformation quantity in the heat-processed, be called hot mechanical paths with the deformation quantity curve that mapping obtains to temperature.Low-melting-point glass powder M and low-melting-point glass powder N have the hot mechanical paths of appearance similar separately at it more than the softening temperature, but two samples reach the temperature difference of identical deformation quantity, and low-melting-point glass powder M is higher more 3-30 ℃ than the temperature that low-melting-point glass powder N reaches identical deformation quantity.In addition, low-melting-point glass powder M is different with the glass softening point of low-melting-point glass powder N, and the softening temperature of low-melting-point glass powder M is higher approximately 3-30 ℃ than the softening temperature of low-melting-point glass powder N.Say with popular words, make the low-melting-point glass powder M that isolates point of suppon exactly and under sealing temperature, omit more firmly than the low-melting-point glass powder N that is used for sealing-in limit portion.Like this, guaranteeing that vacuum glass faceplate limit portion reaches under the prerequisite of hermetic seal, guaranteeing that each isolation point of suppon all has excellent contact with front glass substrate and back glass substrate, makes each isolation point of suppon stressed evenly.
Two of step 3,4,5 key problem in technology is the accurate couplings of making the height of the height of isolating upholder and sealing layer.By control silk screen printing parameter, the thickness of the sealing layer b in the control chart 3 behind the sintering is than the low 1-20 μ m of thickness of the isolation point of suppon a among Fig. 4.Like this, during forward and backward glass-based edges of boards portion sealing by fusing, under the pressure effect of anchor clamps, heat, make each isolate point of suppon when being subjected to thermal softening can both with two sheet glass excellent contact, isolate point of suppon like this and can play the good supporting effect, improve the yield rate and the mechanical strength of vacuum glass goods.
In addition, the gap between the known vacuum glass is about 0.2mm, and the present invention is owing to have only 20-250 μ m with the isolation support thickness of method for printing screen making and the sealing layer thickness of edge sealing.Reduced the gap between sheet glass and the sheet glass.
After the forward and backward glass substrate sealing-in of vacuum glass, the isolation point of suppon shape of formation as shown in Figure 4.By aforesaid method, making each isolate point of suppon all has excellent contact with forward and backward glass substrate, has improved the intensity and the good article rate of vacuum glass.
6. vacuumize and seal venting port.
The panel that the hermetic seal of limit portion is connected vacuumizes, make vacuum tightness reach about 0.0001Pa after, the sealing venting port.
7. make vacuum tightness in the air-breathing further raising vacuum glass faceplate of the getter that is placed on panel venting hole edge with ratio-frequency heating.
8. detect the performance of vacuum glass, install plastics or plastic-steel frame after meeting the requirements additional, obtain qualified vacuum glass faceplate goods.
The invention has the beneficial effects as follows, isolating aspect the point of suppon making, compare with known vacuum glass manufacturing technology and have the following advantages: (1) adopts method for printing screen to make, and improves the make efficiency of isolating point of suppon and has reduced production cost; (2) can play the good supporting effect owing to isolate point of suppon, improve the yield rate and the mechanical strength of vacuum glass goods; (3) reduce gap between sheet glass and the sheet, follow-up vacuumizing and exhausting activity time is shortened, enhanced productivity, reduced the thickness of vacuum glass faceplate simultaneously.(4) metal isolation point of suppon is opaque, and the isolation point of suppon that the present invention makes is translucent sintered compact, has improved the aesthetics of vacuum glass.(5) thermal conductivity of metallic support point is much larger than the thermal conductivity of inorganic materials, and the heat conduction of the inorganic low-melting-point glass sintered compact point of suppon that the present invention makes itself is far below the thermal conductivity of original technology, thereby can reduce the thermal conductivity of vacuum glass product.(6) material cost of metallic support point itself is far above the material cost of low-melting-point glass used herein, and the present invention can reduce the comprehensive cost of vacuum glass.
Therefore, under the identical prerequisite of other condition, or machinery artificial with known usefulness is piled up the vacuum glass faceplate of isolating the preparation of point of suppon manufacturing technology and is compared, the vacuum glass faceplate technology that adopts the present invention to make is simpler, production efficiency is higher, and production cost is lower, and mechanical property is better, thickness is thinner, and vacuum tightness is higher, more attractive in appearance.
Description of drawings
Fig. 1 is typical vacuum glass structural representation, and A is a prebasal plate glass among the figure, and B is a metacoxa glass, and a is the isolation point of suppon between front glass substrate and the back glass substrate, and b represents the sealing layer of sealing-in prebasal plate glass A and metacoxa glass B, and F is a venting hole.
Fig. 2 is the isolation point of suppon synoptic diagram that forms on the glass substrate of back through behind silk screen printing, drying, the sintering.B is the back glass substrate among the figure, and a isolates point of suppon.
Fig. 3 is the low melting glass rete that is used for seal glass edges of boards portion, abbreviates the synoptic diagram of sealing layer as.A is a prebasal plate glass among the figure, and F is a venting hole, and b is a sealing layer.
After Fig. 4 is the forward and backward glass substrate sealing-in of vacuum glass, the isolation point of suppon shape synoptic diagram of formation.A is a prebasal plate glass among the figure, and B is a metacoxa glass, and a isolates the point of suppon shape.
Embodiment
The present invention is further described below in conjunction with drawings and Examples.
Embodiment 1
(1) with size cutting, edging, the cleaning on request of glass raw sheet.The glass raw sheet can be common float glass, toughened glass, various coated glass, glass with clean, low emissivity glass, high visible light transmissivity glass or the like.
(2) making diameter with mechanical drill or laser-beam drilling machine on a sheet glass is the venting hole of 2mm, and this sheet glass is called prebasal plate glass A, and correspondingly, another sheet glass is called metacoxa glass B.
(3) on the glass substrate of back, make the isolation point of suppon with method for printing screen.The non-crystalline type low-melting-point glass powder M and the organic solution that are slightly less than the face glass thermal expansivity with thermal expansivity are mixed with the slurry that a kind of rheological is suitable for silk screen printing.Use method for printing screen then about metacoxa printing diameter on glass 0.5mm, the dot matrix that the cylindric point of the about 25-35 μ of thickness m forms, each idea spacing distance in length and breadth is 25 * 25mm.Through on the glass substrate of back, forming isolation point of suppon array as shown in Figure 2 behind super-dry, the sintering.
(4) will be used for front glass substrate and the back glass substrate non-crystalline type low-melting-point glass powder N of sealing be mixed with can silk screen printing slurry, regulate the viscosity and the rheological of slurry, on the front glass substrate limit with method for printing screen around print the wide 6mm of one deck, the banded wet film of the thick glass powder with low melting point slurry of thick about 20-30 μ m.Through on sheet glass, forming the low melting glass rete that is used for seal glass edges of boards portion as shown in Figure 3 after the drying and sintering, abbreviate sealing layer as.
(5) front glass substrate and back glass substrate is superimposed face-to-face, the face of isolating point of suppon is promptly arranged and have the face of sealing layer staggered relatively.Getter is put near venting hole corner.Periphery with heat-resisting elastic mechanical clamp clamps face glass, anchor clamps will guarantee that the face glass periphery is stressed evenly, and be subjected to thermal softening isolating point of suppon and sealing layer, can continue maintenance during forward and backward glass substrate pitch smaller and give forward and backward glass substrate uniform pressure.Heat the sealing temperature that reaches the sealing layer of making of low-melting-point glass N through grill-hearth travelling oven then, present embodiment is 450 ℃, under this temperature, the isolation point of suppon of making of low-melting-point glass M sintering also can soften deformation under stressed effect, because the thickness of point of suppon sintered compact is a little more than the thickness 3 μ m of limit portion sealing layer, under the chucking pressure effect, point of suppon sintered compact deformation quantity under synthermal is a little less than the deformation quantity of limit portion sealing layer sintered compact, guaranteed like this to realize under the prerequisite of hermetic seal in limit portion, each point of suppon all can contact with front-back baseboard in the point of suppon array, stressed evenly, overcome the defective of each point unbalance stress in existing metal support height is inconsistent and front and back glass baseplate surface unfairness brings stress concentration and the point of suppon array.Sealing temperature at sealing layer kept 8 minutes for 450 ℃, evenly reduced to room temperature then.Finish the making and the hermetic seal of limit portion of vacuum glass point of suppon.
(6) after the vacuum glass that edge sealing finishes around the general vacuumizes and meets the requirements of vacuum tightness, the hermetic seal venting port.
(7) make the getter activation that is placed on panel venting hole edge air-breathing with ratio-frequency heating, further improve the vacuum tightness in the vacuum glass faceplate.
(8) detect the vacuum glass performance, install plastics or plastic-steel frame after meeting the requirements additional.Obtain qualified vacuum glass product.
Embodiment 2
(1) with size cutting, edging, the cleaning on request of glass raw sheet.The glass raw sheet can be common float glass, toughened glass, various coated glass, glass with clean, low emissivity glass, high visible light transmissivity glass or the like.
(2) making diameter with mechanical drill or laser-beam drilling machine on a sheet glass is the venting hole of 1mm, and this sheet glass is called prebasal plate glass, and correspondingly, another sheet glass is called metacoxa glass.
(3) isolate point of suppon on glass making of metacoxa of method for printing screen.The non-crystalline type low-melting-point glass powder M and the organic solution that are slightly less than the thermal expansivity of face glass with thermal expansivity are mixed with the slurry that a kind of rheological is suitable for silk screen printing.Use method for printing screen then about metacoxa printing diameter on glass 0.5mm, the dot matrix that the cylindric point of the wet film of the about 230-240 μ of thickness m forms, each idea spacing distance in length and breadth is 40 * 40mm.Through on the glass substrate of back, forming isolation point of suppon as shown in Figure 2 behind super-dry, the sintering.
(4) will be used for front glass substrate and the back glass substrate non-crystalline type low-melting-point glass powder N of sealing be mixed with can silk screen printing slurry, regulate the viscosity and the rheological of slurry, on the front glass substrate limit with method for printing screen around print the wide 8mm of one deck, the banded wet film of the thick glass powder with low melting point slurry of thick about 225-235 μ m.Through on sheet glass, forming the low melting glass rete b of the seal glass edges of boards portion that is used for as shown in Figure 3 after the drying and sintering, abbreviate sealing layer as.
(5) front glass substrate and back glass substrate is superimposed face-to-face, the face of isolating point of suppon is promptly arranged and have the face of sealing layer staggered relatively.Getter is put near venting hole corner.Periphery with heat-resisting elastic mechanical clamp clamps face glass, anchor clamps will guarantee that the face glass periphery is stressed evenly, and be subjected to thermal softening isolating point of suppon and sealing layer, can continue maintenance during forward and backward glass substrate pitch smaller and give forward and backward glass substrate uniform pressure.Heat the sealing temperature that reaches the sealing layer of making of low-melting-point glass N through intermittent type electrical heater or grill-hearth travelling oven then, present embodiment is 410 ℃, under this temperature, the isolation point of suppon of making of low-melting-point glass M sintering also can soften deformation under stressed effect, because the thickness of point of suppon sintered compact is a little more than the thickness 3 μ m of limit portion sealing layer, under the chucking pressure effect, point of suppon sintered compact deformation quantity under synthermal is a little less than the deformation quantity of limit portion sealing layer sintered compact, guaranteed like this to realize under the prerequisite of hermetic seal in limit portion, each point of suppon all can contact with front-back baseboard in the point of suppon array, stressed evenly, overcome the defective of each point unbalance stress in existing metal support height is inconsistent and front and back glass baseplate surface unfairness brings stress concentration and the point of suppon array.Sealing temperature at sealing layer kept 12 minutes for 410 ℃, evenly reduced to room temperature then.Finish the making and the hermetic seal of limit portion of the point of suppon of vacuum glass faceplate.
(6) after the vacuum glass faceplate that edge sealing finishes around the general vacuumizes and meets the requirements of vacuum tightness, the hermetic seal venting port.
(7) make the getter activation that is placed on panel venting hole edge air-breathing with ratio-frequency heating, further improve the vacuum tightness in the vacuum glass faceplate.
(8) detect the vacuum glass performance, install plastics or plastic-steel frame after meeting the requirements additional.Obtain qualified vacuum glass faceplate goods.
Embodiment 3
(1) with size cutting, edging, the cleaning on request of glass raw sheet.The glass raw sheet can be common float glass, toughened glass, various coated glass, glass with clean, low emissivity glass, high visible light transmissivity glass or the like.
(2) making diameter with mechanical drill or laser-beam drilling machine on a sheet glass is the venting hole of 3mm, and this sheet glass is called prebasal plate glass A, and correspondingly, another sheet glass is called metacoxa glass B.
(3) isolate point of suppon on glass making of metacoxa of method for printing screen.The non-crystalline type low-melting-point glass powder M and the organic solution that are slightly less than the thermal expansivity of face glass with thermal expansivity are mixed with the slurry that a kind of rheological is suitable for silk screen printing.Use method for printing screen then about metacoxa printing diameter on glass 0.5mm, the dot matrix that the cylindric point of the wet film of the about 135-145 μ of thickness m forms, each idea spacing distance in length and breadth is 80 * 80mm.Through on the glass substrate of back, forming isolation point of suppon as shown in Figure 2 behind super-dry, the sintering.
(4) will be used for front glass substrate and the back glass substrate non-crystalline type low-melting-point glass powder N of sealing be mixed with can silk screen printing slurry, regulate the viscosity and the rheological of slurry, on the front glass substrate limit with method for printing screen around print the wide 4mm of one deck, the banded wet film of the thick glass powder with low melting point slurry of thick about 130-140 μ m.Through on sheet glass, forming the low melting glass rete b of the seal glass edges of boards portion that is used for as shown in Figure 3 after the drying and sintering, abbreviate sealing layer as.
(5) front glass substrate and back glass substrate is superimposed face-to-face, the face of isolating point of suppon is promptly arranged and have the face of sealing layer staggered relatively.Getter is put near venting hole corner.Periphery with heat-resisting elastic mechanical clamp clamps face glass, anchor clamps will guarantee that the face glass periphery is stressed evenly, and be subjected to thermal softening isolating point of suppon and sealing layer, can continue maintenance during forward and backward glass substrate pitch smaller and give forward and backward glass substrate uniform pressure.Heat the sealing temperature that reaches the sealing layer of making of low-melting-point glass B through intermittent type electrical heater or grill-hearth travelling oven then, present embodiment is 400 ℃, under this temperature, the isolation point of suppon of making of low-melting-point glass M sintering also can soften deformation under stressed effect, because the thickness of point of suppon is a little more than the thickness 3 μ m of limit portion sealing layer, under the chucking pressure effect, point of suppon sintered compact deformation quantity under synthermal is a little less than the deformation quantity of limit portion sealing layer sintered compact, guaranteed like this to realize under the prerequisite of hermetic seal in limit portion, each point of suppon all can contact with front-back baseboard in the point of suppon array, stressed evenly, overcome the defective of each point unbalance stress in existing metal support height is inconsistent and front and back glass baseplate surface unfairness brings stress concentration and the point of suppon array.Sealing temperature at sealing layer kept 15 minutes for 400 ℃, evenly reduced to room temperature then.Finish the making and the hermetic seal of limit portion of vacuum glass point of suppon.
(6) after the vacuum glass faceplate that edge sealing finishes around the general vacuumizes and meets the requirements of vacuum tightness, the hermetic seal venting port.
(7) make the getter activation that is placed on panel venting hole edge air-breathing with ratio-frequency heating, further improve the vacuum tightness in the vacuum glass faceplate.
(8) detect the vacuum glass performance, install plastics or plastic-steel frame after meeting the requirements additional.Obtain qualified vacuum glass faceplate goods.
It should be noted that, above embodiment only is used for technical scheme of the present invention, it will be understood by those skilled in the art that technical scheme of the present invention is carried out various changes and equivalence replacement, and do not deviate from the principle and the scope of technical solution of the present invention, all should be encompassed among the scope of claim of the present invention.
Claims (4)
1. a silk screen printing prepares the method for vacuum glass substrate isolates point of suppon array, support dot matrix and forward and backward base plate glass limit portion hermetic seal layer with the isolation that silk-screen printing technique is made respectively between the vacuum glass substrate, require to isolate the softening temperature of point of suppon and the employed low-melting-point glass of sealing layer, thermomechanical property, the thickness of isolating point of suppon accurately mates, after the edge sealing exhaust, through the sealing venting port, roasting disappearing detected, and technology such as frame up is made vacuum glass.
2. isolate the method that supports dot matrix between the making vacuum glass substrate according to claim 1, it is characterized in that: the low-melting-point glass powder is mixed with the printing slurry, with method for printing screen the back glass substrate on the printing after, through super-dry, operations such as sintering are made the isolation support dot matrix that is formed by cylindric point between the vacuum glass faceplate, on front glass substrate, print with method for printing screen, through super-dry, sintering circuit is made the sealing layer of sealing-in vacuum glass faceplate limit portion, the softening temperature of the employed low-melting-point glass powder of this sealing layer is lower than softening temperature 3-30 ℃ of the low-melting-point glass powder of making point of suppon, the thickness of control isolation point of suppon is higher than the thickness 1-20 μ m micron of vacuum glass limit portion sealing layer, under the sealing temperature of limit portion seal glass, isolation point of suppon behind the sintering is subjected under the uniform pressure harder than limit portion sealing layer glass sintering body at uniform temp, point of suppon deformation is little.
3. isolate the method that supports dot matrix between the making vacuum glass substrate according to claim 1, it is characterized in that: isolating point of suppon is glassiness sintered compact, the diameter of this sintered compact is 0.1-1.0mm, thickness is the right cylinder of 20-250 μ m, the sealing-in floor height 1-20 μ m that uses than vacuum glass faceplate sealing-in limit portion.
4. isolate the method that supports dot matrix between the making vacuum glass substrate according to claim 1, it is characterized in that: more than glass transition temperature, be used to make the hot mechanical paths appearance similar of the sintered compact of isolating sintered compact that the sealing by fusing glass powder that supports dot matrix forms and forming as the sealing glass powder of sealing-in limit portion, the former is high approximately 3-30 ℃ but be issued to the needed temperature of identical deformation quantity at same pressure; Under the sealing temperature of limit portion glass sealing layer, because the thickness of point of suppon is higher than the thickness of limit portion sealing layer, under the chucking pressure effect, point of suppon sintered compact deformation quantity under synthermal is lower than the deformation quantity of limit portion sealing layer sintered compact, guaranteed like this to realize under the prerequisite of hermetic seal in limit portion, in the point of suppon array each point of suppon all can with forward and backward substrate contacts, stressed evenly.
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| CN108529903A (en) * | 2017-03-02 | 2018-09-14 | 台玻东元真空节能玻璃股份有限公司 | The production method of toughened vacuum glass |
| CN111023884A (en) * | 2020-01-06 | 2020-04-17 | 洛阳明远石化技术有限公司 | Glass heat exchange element and manufacturing method and application thereof |
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| CN103796966B (en) * | 2011-08-30 | 2016-02-24 | 乐金华奥斯有限公司 | Comprise vacuum glass and the manufacture method thereof of the different weighting material of arrangement pitch |
| CN103796966A (en) * | 2011-08-30 | 2014-05-14 | 乐金华奥斯有限公司 | Vacuum glass including pillars having different arrangement distances, and method for manufacturing same |
| CN102898007A (en) * | 2011-10-11 | 2013-01-30 | 许长河 | Tail-free sealing vacuum energy-saving and noise-reducing glass |
| CN103172255A (en) * | 2011-12-20 | 2013-06-26 | 王洪举 | Process for preparing cuttable vacuum glass |
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| CN103864282A (en) * | 2012-12-12 | 2014-06-18 | 东莞市银通玻璃有限公司 | Supporting substance, vacuum glass containing supporting substance, and manufacturing method |
| CN103864282B (en) * | 2012-12-12 | 2016-06-01 | 东莞市银通玻璃有限公司 | Upholder, the vacuum glass comprising this upholder and manufacture method |
| CN103641325A (en) * | 2013-11-27 | 2014-03-19 | 常熟市赛蒂镶嵌玻璃制品有限公司 | Vacuum glass preparation technology |
| CN103922573A (en) * | 2014-03-17 | 2014-07-16 | 大连交通大学 | Vacuum glass and processing process thereof |
| CN106587581A (en) * | 2016-12-11 | 2017-04-26 | 大连哈尼比科技有限公司 | Glass fusion bonding method, as well as manufacturing method and manufacturing equipment of vacuum glass |
| CN108529903A (en) * | 2017-03-02 | 2018-09-14 | 台玻东元真空节能玻璃股份有限公司 | The production method of toughened vacuum glass |
| CN111023884A (en) * | 2020-01-06 | 2020-04-17 | 洛阳明远石化技术有限公司 | Glass heat exchange element and manufacturing method and application thereof |
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Application publication date: 20110216 |