CN115466047A - Integral screen glass cutting and fixing working platform - Google Patents
Integral screen glass cutting and fixing working platform Download PDFInfo
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- CN115466047A CN115466047A CN202211315016.2A CN202211315016A CN115466047A CN 115466047 A CN115466047 A CN 115466047A CN 202211315016 A CN202211315016 A CN 202211315016A CN 115466047 A CN115466047 A CN 115466047A
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- 239000011521 glass Substances 0.000 title claims abstract description 74
- 238000005520 cutting process Methods 0.000 title claims abstract description 52
- 238000001179 sorption measurement Methods 0.000 claims abstract description 185
- 238000010521 absorption reaction Methods 0.000 claims description 12
- 238000004891 communication Methods 0.000 claims description 9
- 238000005086 pumping Methods 0.000 claims description 9
- 230000000149 penetrating effect Effects 0.000 claims description 2
- 238000000034 method Methods 0.000 description 10
- 239000000758 substrate Substances 0.000 description 7
- XAGFODPZIPBFFR-UHFFFAOYSA-N aluminium Chemical compound [Al] XAGFODPZIPBFFR-UHFFFAOYSA-N 0.000 description 6
- 229910052782 aluminium Inorganic materials 0.000 description 6
- 230000000694 effects Effects 0.000 description 6
- 238000004519 manufacturing process Methods 0.000 description 6
- 229910000838 Al alloy Inorganic materials 0.000 description 5
- 239000003463 adsorbent Substances 0.000 description 5
- 230000007547 defect Effects 0.000 description 5
- 239000000463 material Substances 0.000 description 5
- 238000005553 drilling Methods 0.000 description 2
- 230000002035 prolonged effect Effects 0.000 description 2
- 238000002788 crimping Methods 0.000 description 1
- 230000002708 enhancing effect Effects 0.000 description 1
- 238000009434 installation Methods 0.000 description 1
- 230000002045 lasting effect Effects 0.000 description 1
- 230000002093 peripheral effect Effects 0.000 description 1
- 238000005498 polishing Methods 0.000 description 1
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Classifications
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- C—CHEMISTRY; METALLURGY
- C03—GLASS; MINERAL OR SLAG WOOL
- C03B—MANUFACTURE, SHAPING, OR SUPPLEMENTARY PROCESSES
- C03B33/00—Severing cooled glass
- C03B33/02—Cutting or splitting sheet glass or ribbons; Apparatus or machines therefor
- C03B33/023—Cutting or splitting sheet glass or ribbons; Apparatus or machines therefor the sheet or ribbon being in a horizontal position
- C03B33/03—Glass cutting tables; Apparatus for transporting or handling sheet glass during the cutting or breaking operations
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- C—CHEMISTRY; METALLURGY
- C03—GLASS; MINERAL OR SLAG WOOL
- C03B—MANUFACTURE, SHAPING, OR SUPPLEMENTARY PROCESSES
- C03B33/00—Severing cooled glass
- C03B33/02—Cutting or splitting sheet glass or ribbons; Apparatus or machines therefor
- C03B33/023—Cutting or splitting sheet glass or ribbons; Apparatus or machines therefor the sheet or ribbon being in a horizontal position
- C03B33/037—Controlling or regulating
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- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02P—CLIMATE CHANGE MITIGATION TECHNOLOGIES IN THE PRODUCTION OR PROCESSING OF GOODS
- Y02P40/00—Technologies relating to the processing of minerals
- Y02P40/50—Glass production, e.g. reusing waste heat during processing or shaping
- Y02P40/57—Improving the yield, e-g- reduction of reject rates
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- Chemical & Material Sciences (AREA)
- Engineering & Computer Science (AREA)
- Materials Engineering (AREA)
- Organic Chemistry (AREA)
- Re-Forming, After-Treatment, Cutting And Transporting Of Glass Products (AREA)
- Manipulator (AREA)
Abstract
The invention discloses an integral screen glass cutting and fixing working platform which is characterized by comprising a platform body in an integral horizontal flat plate-shaped structure, wherein the upper surface of the platform body is a supporting plane, a plurality of vertically downward adsorption ports are formed in the upper surface of the platform body, the adsorption ports are uniformly arranged in an array manner, a plurality of vacuum pipelines arranged along the horizontal direction are arranged in the platform body, and each adsorption port is communicated with a corresponding vacuum pipeline. The invention can better realize the fixation of the screen glass, and has the advantages of better stability and reliability, and improved cutting precision and product quality.
Description
The application is a divisional application of a patent of 'screen glass production cutting method based on integral fixed working platform' of application number 202110808563.3, application date 2021-07-16.
Technical Field
The invention relates to the technical field of screen glass production equipment, in particular to an integral screen glass cutting and fixing working platform.
Background
The screen glass is a glass material mainly used as a display screen on a mobile phone, a computer and a television. The size and dimensions of the screen glass vary according to the application. In the production process of the screen glass, the screen glass needs to be cut.
In the process of cutting the screen glass, the screen glass needs to be fixed firstly. In the prior art, the mode of crimping or clamping the side edges of two sides of glass to be cut on a workbench is usually adopted for fixing. For example, CN202022505760.1 discloses a mobile phone screen glass cutting device with a polishing function, in this patent, a clamping and fixing manner is adopted to position glass to be cut, and a positioning seat for clamping the glass can be movably adjusted, so that the glass is convenient to use. However, the fixing mode of the structure causes the glass to be unevenly stressed during cutting, so that the glass can be bent and deformed, the cutting quality is further influenced, and the increasingly refined quality requirements of screen glass products cannot be met.
CN210029226U discloses a suction rake for moving a screen glass. The structure of the suction nozzle comprises transverse aluminum profiles, longitudinal aluminum profiles, a suction nozzle, a second suction nozzle and a third suction nozzle, wherein the two transverse aluminum profiles are detachably connected with the two longitudinal aluminum profiles through four connecting blocks, the three first suction nozzles are fixedly connected to the opposite side surfaces of the two transverse aluminum profiles, and the two suction nozzles are fixedly connected to the opposite side surfaces of the transverse aluminum profiles. The utility model discloses a through setting up two horizontal aluminium alloy and two vertical aluminium alloy, all set up the suction nozzle on two aluminium alloys, set up vacuum switch on the vertical aluminium alloy, utilize vacuum switch to start every suction nozzle, guarantee to adsorb and collect screen glass, set up on the horizontal aluminium alloy simultaneously and can gliding expansion plate to can make things convenient for not unidimensional glass size, whole novel effectual solution of harrow of inhaling of mobile phone glass the problem of getting is moved in cutting process, it is more simple and convenient to operate.
Although the glass screen is fixed and adjusted more conveniently by adopting an adsorption mode, the glass screen still adopts a peripheral fixing mode. When the glass screen is cut, the problem that the cutting quality and the product precision are affected due to unbalanced stress still exists.
Therefore, how to provide a scheme capable of better realizing the fixation of the screen glass, enhancing the stability and reliability of the fixation, and improving the cutting precision and the product quality becomes a problem to be considered and solved by the personnel in the field.
Disclosure of Invention
Aiming at the defects of the prior art, the technical problems to be solved by the invention are as follows: a screen glass production and cutting method based on an integral type fixed working platform and the integral type screen glass cutting and fixing working platform can be provided, and the screen glass can be better fixed, has better stability and reliability, and improves cutting precision and product quality.
The technical scheme adopted by the invention is as follows:
a screen glass production cutting method based on an integral fixed working platform fixes a plate-shaped screen glass substrate to be cut in a horizontal state in a mode of adsorption on the lower side surface, and then cuts the screen glass substrate from the upper side by adopting a cutting device.
Like this, adopt the whole downside plane of a level setting to treat the cutting screen glass substrate to realize supporting, then adopt even array arrangement and the same adsorption affinity of size to provide even adsorption affinity and realize fixing, improved the fixed reliability and the stability of screen glass. Therefore, the stress balance of the screen glass during cutting is ensured, the cutting precision is improved, and the precision of a product is improved.
Further, adopt the fixed work platform of integral screen glass cutting to realize treating the fixed of cutting screen glass during the cutting, the fixed work platform of integral screen glass cutting, including a platform body that is integral horizontal flat structure, platform body upper surface is the supporting plane, and a plurality of vertical decurrent absorption mouths have been seted up to platform body upper surface, and the absorption mouth is even array and arranges, and platform body inside has along many vacuum tube ways that the horizontal direction set up, and each absorption mouth all communicates on the corresponding vacuum tube way.
In the above scheme, the adsorption ports are arranged in an even array, which means that the adsorption ports in only part of the regions on the support plane are arranged in an even array, so that the glass screen can be uniformly adsorbed and fixed in a specified size without uniformly arranging all the adsorption ports according to the equal distance. Therefore, the number of the adsorption ports on the working platform is large, so that in a conventional design method, two or more plates are overlapped and fixed to form the working platform in order to facilitate the arrangement of the vacuum pipeline, and the vacuum pipeline can be conveniently formed by penetrating and slotting between the plates. However, the structural mode of fixedly forming the working platform after the plurality of plates are overlapped has the following defects: 1 is that the fluting region needs each absorption mouth of intercommunication, so the area is great, can form the weak position of platform support intensity, can produce certain sunken deformation under the adsorption affinity of the fixed in-process of screen glass, leads to the screen glass atress uneven, and then influences the cutting quality. 2 be in order to improve real hole absorption fixed effect, need sealed fixed and sealed requirement higher between the panel, the long back of device operating time, sealed fixed position is used for the easy fatigue failure of fixed screw spare not hard up, and then influences the adsorption effect, influences the cutting effect.
In the scheme, the platform body is obtained by a horizontal flat-plate-shaped member, and the adsorption vacuumizing structure is arranged on the same plate member, so that the defects can be avoided, the reliability and stability of adsorption and fixation are improved, the stability and durability of cutting quality are ensured, the warping and deformation of the cut screen glass are prevented, and the service life of the device is greatly prolonged.
Furthermore, the vacuum pipeline is a pipeline which is arranged along the linear direction and has a circular section, and at least one end of the vacuum pipeline is arranged on the side surface of the platform body.
Like this, can conveniently adopt the mode processing of drilling to obtain the vacuum line from the platform body side, the section of vacuum line in vertical direction is circular simultaneously, can be better transmit pressure from top to bottom, and the maximum cavity position of avoiding answering the vacuum line leads to the platform upper surface to produce sunken deformation.
Furthermore, the vacuum pipeline is provided with a plug on an opening on the side surface of the platform body, and a vertical vacuumizing interface is arranged below the platform body and communicated with the vacuum pipeline.
Therefore, the opening on the side surface of the vacuum pipeline can be blocked by the plug during vacuumizing, and then the vacuumizing device is used for vacuumizing below the platform body, so that the vacuumizing device is more convenient to install and arrange.
Further, the platform body is provided with mounting holes for mounting and fixing the platform body at least on two opposite side surfaces.
Like this, conveniently realize the fixed of platform body self on the mount pad through the mounting hole.
Further, the mounting hole is a plurality of and be evenly spaced horizontal row form setting.
Like this, can be so that the platform body can be atress more uniformly when fixed mounting by itself, avoid the atress inequality to lead to the influence of deformation to the platform body.
Furthermore, a plurality of vacuum pipelines are mutually communicated to form a communicated adsorption area at least corresponding to the area of a product with a specific model, a plurality of communicated adsorption areas are formed on the platform body, and each communicated adsorption area is provided with a pair of vacuumizing interfaces which are positioned below and communicated with the vacuum pipelines.
Like this, on same mounting platform, can adsorb the region through the intercommunication of difference, carry out the absorption of corresponding size to the screen glass product of different models size and fix and the cutting, can realize like this that the pertinence to multiple different products is fixed, improved the device practicality.
Further, the communicated adsorption areas are arranged in a semi-surrounding structure from inside to outside on the whole. The overall meaning is that at least most of the connected adsorption areas are arranged in a semi-surrounding structure, but there may be a separate part of the connected adsorption areas in the form of independent areas.
In this way, each communicating adsorption region can be used alone to form a platform adsorption surface of a specific area, and when necessary, the outer communicating adsorption region can be used in combination with the inner communicating adsorption region to form an adsorption surface of a larger area. Therefore, by adopting the structural arrangement mode, more targeted adsorption areas of products with different models and sizes can be realized by adopting less area, and the practicability of the device is greatly improved.
Therefore, the arrangement of the vacuum pipeline is more convenient, and the thickness of the platform body can be reduced better.
Further, the vacuumizing interfaces of all communicated adsorption areas are located in the middle of the lower portion of the platform body and are integrally arranged around the platform body in a similar annular structure.
Like this, it arranges evacuating device in platform body below middle part to be convenient more, and convenient adjustment switches.
Furthermore, the communicated adsorption region comprises a first communicated adsorption region positioned in the middle of one side of the platform body, the first communicated adsorption region comprises a plurality of first length direction vacuum pipelines uniformly arranged along the width direction of the platform body at intervals, the first length direction vacuum pipelines extend to the position near the middle of the platform body along the length direction from one side edge of the length direction of the platform body, the first communicated adsorption region also comprises at least one first width direction vacuum pipeline arranged along the width direction of the platform, the first width direction vacuum pipeline is communicated with the first length direction vacuum pipelines and extends to the side edge along one side of the width direction of the platform body, and the first length direction vacuum pipeline and the first width direction vacuum pipeline are positioned on a first horizontal plane;
the communicated adsorption region further comprises a second communicated adsorption region which is arranged outside the first communicated adsorption region in a semi-surrounding mode, the second communicated adsorption region comprises a plurality of second length direction vacuum pipelines distributed on two sides of the first communicated adsorption region in the width direction of the platform body, the second length direction vacuum pipelines are uniformly arranged at intervals in the width direction of the platform body, the second communicated adsorption region further comprises at least one second width direction vacuum pipeline, the second width direction vacuum pipelines are uniformly arranged at intervals in the length direction of the platform body and are positioned on the outer side, away from the direction of the first communicated adsorption region, of the first width direction vacuum pipelines, the second width direction vacuum pipelines extend to the side edge along one side of the width direction of the platform body, the direction of the second width direction vacuum pipelines extending to the side edge of the platform body is opposite to the direction of the first width direction vacuum pipelines extending to the side edge of the platform body, the second length direction vacuum pipelines and the second width direction vacuum pipelines are both positioned on a second horizontal plane, and the first horizontal plane are arranged in a staggered mode in the height direction;
the communicated adsorption area also comprises a third communicated adsorption area which is arranged outside the second communicated adsorption area in a semi-enclosed mode, the third communicated adsorption area comprises a plurality of third length direction vacuum pipelines distributed on two sides of the second communicated adsorption area in the width direction of the platform body, the third length direction vacuum pipelines are uniformly arranged at intervals in the width direction of the platform body, the third communicated adsorption area also comprises at least one third width direction vacuum pipeline, the third width direction vacuum pipelines are uniformly arranged at intervals in the length direction of the platform body and are positioned on the outer side, deviating from the direction of the first communicated adsorption area, of the second width direction vacuum pipelines, the third width direction vacuum pipelines extend to the side edge of the platform body along one side of the width direction of the platform body, the direction of the third width direction vacuum pipelines is the same as the direction of the second width direction vacuum pipelines, the third length direction vacuum pipelines which extend to the side edge of the platform body are positioned on the first horizontal plane, the third length direction vacuum pipelines and the third width direction vacuum pipelines on the other side edge of the platform body are positioned on the first horizontal plane, and a connecting pipe plug can be arranged below the second vertical connecting pipe;
the communicated adsorption area further comprises a fourth communicated adsorption area, the fourth communicated adsorption area comprises fourth length direction vacuum pipelines distributed on two sides of the third communicated adsorption area in the width direction of the platform body, the fourth communicated adsorption area further comprises fourth width direction vacuum pipelines extending along the width direction of the platform body, the fourth length direction vacuum pipelines which are consistent with the side direction of the side edge of the platform body and connected with the first width direction vacuum pipelines are located on the second horizontal plane, the fourth length direction vacuum pipelines and the fourth width direction vacuum pipelines on the other side are located on the first horizontal plane (the fourth length direction vacuum pipelines and the fourth width direction vacuum pipelines are communicated through a vertical downward connecting pipeline, and the lower port of the connecting pipeline can be plugged.
Like this, adopt the vacuum pipeline arrangement space of only two-layer horizontal plane, arranged four and be the intercommunication adsorption zone of half surrounding structure in proper order, and make respective vacuum pipe each noninterference each other ingeniously, so can realize reaching more intercommunication adsorption zone's arranging with thinner platform size, greatly improved the integrated performance of device, realize the use possibility that equipment is more with less equipment material cost, greatly improved the practicality of device.
The communicated adsorption area also comprises a fifth communicated adsorption area, the fifth communicated adsorption area is positioned at one end of the platform body, which is deviated from the direction of the first communicated adsorption area, the fifth communicated adsorption area comprises a plurality of fifth width-direction vacuum pipelines arranged along the width direction of the platform body, the fifth width-direction vacuum pipelines are uniformly distributed at intervals along the length direction of the platform body, one end of each fifth width-direction vacuum pipeline extends to the side edge of the platform body, the other end of each fifth width-direction vacuum pipeline is intersected and communicated with a fifth length-direction vacuum pipeline arranged along the length direction of the platform body, one end of each fifth length-direction vacuum pipeline, which is deviated from the first communicated adsorption area, extends to the side surface of the end part of the platform body, the fifth width-direction vacuum pipeline and the fifth length-direction vacuum pipelines are both positioned on the second horizontal plane, the fifth communicated adsorption area also comprises two fifth vacuumizing connection auxiliary pipelines arranged along the length direction of the platform body, the fifth vacuumizing connection auxiliary pipelines are positioned on the third horizontal plane, one end of each fifth vacuumizing connection auxiliary pipeline extends into the third communicated adsorption area and is provided with a corresponding vacuumizing interface, and the other end of each vacuumizing interface is connected to the side edge of the platform body;
the communicated adsorption area further comprises a sixth communicated adsorption area, the sixth communicated adsorption area comprises sixth width direction vacuum pipelines which are arranged at the end part of the platform body in parallel at intervals with the fifth width direction vacuum pipelines, one end of each sixth width direction vacuum pipeline is communicated to the side edge of the platform body, two ends of each sixth width direction vacuum pipeline are communicated and connected with a sixth length direction vacuum pipeline in a crossing mode, two sixth vacuumizing connection auxiliary pipelines which are arranged along the length direction of the platform body are further arranged in the middle of each sixth width direction vacuum pipeline, one end of each sixth vacuumizing connection auxiliary pipeline extends into the third communicated adsorption area and is provided with a corresponding vacuumizing interface, the other end of each sixth vacuumizing connection auxiliary pipeline is connected to the side edge of the platform body, and the sixth width direction vacuum pipelines, the sixth length direction vacuum pipelines and the sixth vacuumizing connection auxiliary pipelines are all located on the first horizontal plane.
Like this, increased at platform body along length direction's one end side and set up fifth intercommunication adsorption zone and sixth intercommunication adsorption zone, these two regions are less than platform width direction's size at platform length direction's size, have greatly increased the size kind scope that can form adsorption zone for the glass screen product that more shapes required can be integrated and realize fixed cutting on a work platform. And the fifth intercommunication adsorption zone and the sixth intercommunication adsorption zone self structure setting have simple structure, easily processing, can draw the vacuum pumping interface to platform middle part position in order to make things convenient for advantages such as evacuation. When the vacuum pumping device is implemented, the vacuum pumping pipelines which are positioned in the same communicated adsorption area and are not positioned on the same horizontal plane are communicated by virtue of the channel arranged in the vertical direction of the platform body.
During specific implementation, the arrangement structure of the fifth communicated adsorption region and the sixth communicated adsorption region can be adjusted as follows, under the condition that the projection positions of the vacuum pipelines in the fifth communicated adsorption region and the sixth communicated adsorption region on the horizontal plane are not changed, the positions of the vacuum pipelines in the vertical direction of the platform body are adjusted, so that the fifth width direction vacuum pipelines, the sixth width direction vacuum pipelines and the sixth length direction vacuum pipelines on the same side of the fifth length direction vacuum pipeline are all arranged on the second horizontal plane, and the rest sixth length direction vacuum pipelines, the fifth length direction vacuum pipelines, the auxiliary pipelines for fifth vacuumizing connection and the auxiliary pipelines for sixth vacuumizing connection are all arranged on the first horizontal plane. Therefore, all vacuum pipelines can be arranged only in two horizontal planes, the thickness required by the platform body is greatly reduced, and materials are saved. Only in this arrangement, a plurality of vertical holes need to be formed in the platform body between the fifth width direction vacuum pipelines and the fifth length direction vacuum pipelines to enable the vertical holes to be communicated, and the processing is relatively inconvenient.
In conclusion, the invention can better realize the fixation of the screen glass, and has the advantages of better stability and reliability, and improved cutting precision and product quality.
Drawings
Fig. 1 is a schematic structural view of an integrated screen glass cutting and fixing working platform in the invention.
Fig. 2 is a top view of a portion of the vacuum line of fig. 1 alone. In fig. 2, the first communicating adsorption region, the third communicating adsorption region and the fifth communicating adsorption region are indicated by solid lines, and the second communicating adsorption region, the fourth communicating adsorption region and the sixth communicating adsorption region are indicated by dotted lines.
FIG. 3 is a schematic view of a single first communicating adsorbent region of FIG. 2.
FIG. 4 is a schematic view of a single second connected adsorbent zone of FIG. 2.
FIG. 5 is a schematic view of a single third interconnected adsorbent region of FIG. 2.
FIG. 6 is a schematic view of a single fourth interconnected adsorbent region of FIG. 2.
FIG. 7 is a schematic view of the fifth isolated communication adsorption zone of FIG. 2.
FIG. 8 is a schematic view of the sixth communicating adsorbent region alone of FIG. 2.
Fig. 9 is a schematic perspective view of fig. 2.
Detailed Description
The present invention will be described in further detail with reference to the following embodiments.
The specific implementation mode is as follows: the screen glass production and cutting method based on the integral fixed working platform is characterized in that a support plane with a horizontally arranged area larger than the area to be cut of a screen glass substrate is adopted to support the screen glass substrate to be cut, and adsorption ports which are uniformly arrayed and have the same size are adopted to provide uniform downward suction to fix the screen glass substrate to be cut.
Like this, adopt the whole downside plane of a level setting to treat the cutting screen glass substrate to realize supporting, then adopt even array arrangement and the same adsorption affinity of size to provide even adsorption affinity and realize fixing, improved the fixed reliability and the stability of screen glass. Therefore, the stress balance of the screen glass during cutting is ensured, the cutting precision is improved, and the product precision is improved.
Specifically, in the method, an integral screen glass cutting and fixing working platform is adopted to fix the screen glass to be cut during cutting, and the integral screen glass cutting and fixing working platform, as shown in fig. 1-9, comprises a platform body 3 in an integral horizontal flat structure, the upper surface of the platform body 3 is a supporting plane, the upper surface of the platform body is provided with a plurality of vertically downward adsorption ports 1, the adsorption ports 1 are uniformly arrayed, a plurality of vacuum pipelines 4 arranged along the horizontal direction are arranged in the platform body 1, and each adsorption port 1 is communicated with a corresponding vacuum pipeline.
In the above scheme, the adsorption ports are arranged in an even array, which means that the adsorption ports in only part of the regions on the support plane are arranged in an even array, so that the glass screen can be uniformly adsorbed and fixed in a specified size without uniformly arranging all the adsorption ports according to the equal distance. Therefore, because the number of the adsorption ports on the working platform is large, two or more plates are overlapped and fixed to form the working platform in a conventional design method for facilitating the arrangement of the vacuum pipeline, and the through grooves between the plates can be conveniently formed to form the vacuum pipeline. However, the structural mode of fixedly forming the working platform after the plurality of plates are overlapped has the following defects: 1 be the fluting region needs each absorption mouth of intercommunication, so the area is great, can form the weak position of platform support intensity, can produce certain sunken deformation under the adsorption affinity of the fixed in-process of screen glass, leads to the screen glass atress uneven, and then influences the cutting quality. 2 be in order to improve real hole absorption fixed effect, need sealed fixed and sealed requirement higher between the panel, the long back of device operating time, sealed fixed position is used for the easy fatigue failure of fixed screw spare not hard up, and then influences the adsorption effect, influences the cutting effect.
In the scheme, the platform body 3 is obtained by a horizontal flat-plate-shaped member, and the vacuum pumping structure for realizing adsorption is arranged on the same plate member, so that the defects can be avoided, the reliability and the stability of adsorption and fixation are improved, the stable and lasting quality of cutting is ensured, the warp and the deformation of the cut screen glass are prevented, and the service life of the device is greatly prolonged.
Wherein, the vacuum pipeline 4 is a pipeline which is arranged along the linear direction and has a circular section, and at least one end of the vacuum pipeline is arranged on the side surface of the platform body.
Like this, can conveniently adopt the mode processing of drilling to obtain the vacuum line from the platform body side, the section of vacuum line in vertical direction is circular simultaneously, can be better transmit pressure from top to bottom, and the maximum cavity position of avoiding answering the vacuum line leads to the platform upper surface to produce sunken deformation.
Wherein, the vacuum pipeline 4 is provided with a plug (not shown) on the opening of the side surface of the platform body, and a vertical vacuumizing interface 5 is arranged below the platform body and communicated with the vacuum pipeline.
Therefore, the opening on the side surface of the vacuum pipeline can be blocked by the plug during vacuumizing, and then the vacuumizing device is used for vacuumizing below the platform body, so that the vacuumizing device is more convenient to install and arrange.
Wherein, the platform body still is provided with the mounting hole 2 that is used for the installation fixed self on two relative sides at least.
Like this, conveniently realize the fixed of platform body self on the mount pad through the mounting hole.
Wherein, mounting hole 2 is a plurality of and be evenly spaced horizontal row form setting.
Like this, can make the platform body itself can be atress more evenly when fixed mounting, avoid the atress inequality to lead to the influence of deformation to the platform body.
The vacuum pipelines 4 are communicated with each other to form a communicated adsorption area at least corresponding to the area of a product with a specific model, a plurality of communicated adsorption areas are formed on the platform body, and each communicated adsorption area is provided with a pair of vacuumizing interfaces which are positioned below and communicated with the vacuum pipelines.
Like this, on same mounting platform, can adsorb the region through the intercommunication of difference, carry out the absorption of corresponding size to the screen glass product of different models size and fix and the cutting, can realize like this that the pertinence to multiple different products is fixed, improved the device practicality.
Wherein, be whole and be from inside to outside semi-surrounding formula structural arrangement between each connection adsorption zone. The overall meaning is that at least most of the connected adsorption areas are arranged in a semi-surrounding structure, but there may be a separate part of the connected adsorption areas in the form of independent areas.
In this way, each communicating adsorption region can be used alone to form a platform adsorption surface of a specific area, and the outer communicating adsorption region can be used in combination with the inner communicating adsorption region to form an adsorption surface of a larger area, if necessary. Therefore, by adopting the structural arrangement mode, more targeted adsorption areas of products with different models and sizes can be realized by adopting less area, and the practicability of the device is greatly improved.
Therefore, the arrangement of the vacuum pipeline is more convenient, and the thickness of the platform body can be reduced better.
Wherein, each intercommunication adsorption zone's evacuation interface all is located platform body below middle part position and wholly centers on and is similar annular structure and arranges.
Like this, it arranges evacuating device in platform body below middle part to be convenient more, and convenient adjustment switches.
The communication adsorption area comprises a first communication adsorption area 6 positioned in the middle of one side of the platform body, the first communication adsorption area 6 comprises a plurality of first length direction vacuum pipelines which are uniformly arranged along the width direction of the platform body at intervals, the first length direction vacuum pipelines extend to the position near the middle of the platform body along the length direction from one side edge of the length direction of the platform body, the first communication adsorption area also comprises at least one first width direction vacuum pipeline which is arranged along the width direction of the platform, the first width direction vacuum pipeline is communicated and connected with the first length direction vacuum pipelines and extends to the side edge along the single side of the width direction of the platform body, and the first length direction vacuum pipeline and the first width direction vacuum pipeline are positioned on a first horizontal plane;
the communicated adsorption region further comprises a second communicated adsorption region 7 which is arranged outside the first communicated adsorption region in a semi-surrounding mode, the second communicated adsorption region 7 comprises a plurality of second length direction vacuum pipelines distributed on two sides of the first communicated adsorption region in the width direction of the platform body, the second length direction vacuum pipelines are uniformly arranged along the width direction of the platform body at intervals, the second communicated adsorption region further comprises at least one second width direction vacuum pipeline, the second width direction vacuum pipelines are uniformly arranged along the length direction of the platform body at intervals and are positioned on the outer side, away from the direction of the first width direction vacuum pipeline, the second width direction vacuum pipelines extend to the side edge along one side edge of the width direction of the platform body, the direction of the second width direction vacuum pipelines extending to the side edge of the platform body is opposite to the direction of the first width direction vacuum pipelines extending to the side edge of the platform body, the second length direction vacuum pipelines and the second width direction vacuum pipelines are both positioned on a second horizontal plane, and the first horizontal plane are arranged in a staggered mode in the height direction;
the communicated adsorption region further comprises a third communicated adsorption region 8 which is arranged outside the second communicated adsorption region in a semi-enclosed mode, the third communicated adsorption region 8 comprises a plurality of third length direction vacuum pipelines distributed on two sides of the second communicated adsorption region in the width direction of the platform body, the third length direction vacuum pipelines are uniformly arranged along the width direction of the platform body at intervals, the third communicated adsorption region further comprises at least one third width direction vacuum pipeline, the third width direction vacuum pipelines are uniformly arranged along the length direction of the platform body at intervals and are positioned on the outer side, away from the direction of the first communicated adsorption region, of the second width direction vacuum pipelines, the third width direction vacuum pipelines extend to the side edge of the platform body along one side of the width direction of the platform body, the direction of the third width direction vacuum pipelines is the same as the direction of the second width direction vacuum pipelines, the third length direction vacuum pipelines extending to the same side edge of the platform body and the third width direction vacuum pipelines are positioned on the first horizontal plane, the third length direction vacuum pipelines and the third width direction vacuum pipelines on the same side edge of the platform body are positioned on the first horizontal plane, and a connecting pipe plug is arranged below the second horizontal plane;
the communicated adsorption area further comprises a fourth communicated adsorption area 9, the fourth communicated adsorption area 9 comprises fourth length direction vacuum pipelines distributed on two sides of the third communicated adsorption area in the width direction of the platform body, the fourth communicated adsorption area further comprises fourth width direction vacuum pipelines extending along the width direction of the platform body, the fourth length direction vacuum pipelines which are connected to the side edge of the platform body through the first width direction vacuum pipelines and are consistent in direction are located on the second horizontal plane, the fourth length direction vacuum pipelines and the fourth width direction vacuum pipelines on the other side are located on the first horizontal plane (the fourth length direction vacuum pipelines and the fourth width direction vacuum pipelines are communicated through a vertical downward connecting pipeline, and the lower port of the connecting pipeline can be plugged by an end cap).
Like this, adopt the vacuum line arrangement space of only two-layer horizontal plane, arranged four and be the intercommunication adsorption zone of half surrounding structure in proper order, and make respective vacuum tube each can not interfere each other ingeniously, so can realize reaching more intercommunication adsorption zone's arrangement with thinner platform size, greatly improved the integrated performance of device, realize the use possibility that equipment is more with less equipment material cost, greatly improved the practicality of device.
The communicated adsorption region further comprises a fifth communicated adsorption region 10, the fifth communicated adsorption region 10 is located at one end, away from the first communicated adsorption region, of the platform body, the fifth communicated adsorption region comprises a plurality of fifth width-direction vacuum pipelines arranged along the width direction of the platform body, the fifth width-direction vacuum pipelines are uniformly distributed at intervals along the length direction of the platform body, one end of each fifth width-direction vacuum pipeline extends to the side edge of the platform body, the other end of each fifth width-direction vacuum pipeline is in intersected through connection with a fifth length-direction vacuum pipeline arranged along the length direction of the platform body, one end, away from the first communicated adsorption region, of each fifth length-direction vacuum pipeline extends to the side surface of the end part of the platform body, the fifth width-direction vacuum pipelines and the fifth length-direction vacuum pipelines are both located on a second horizontal plane, the fifth communicated adsorption region further comprises two fifth vacuumizing connection auxiliary pipelines arranged along the length direction of the platform body, the fifth vacuumizing connection auxiliary pipelines are located on the third horizontal plane, one end of each fifth vacuumizing connection auxiliary pipeline extends into the third communicated adsorption region and is provided with a corresponding vacuumizing interface, and the other end of each connecting to the side edge of the platform body;
the communicated adsorption area further comprises a sixth communicated adsorption area 11, the sixth communicated adsorption area 11 comprises sixth width direction vacuum pipelines which are arranged at the end part of the platform body in parallel at intervals with the fifth width direction vacuum pipelines, one end of each sixth width direction vacuum pipeline is communicated to the side edge of the platform body, two ends of each sixth width direction vacuum pipeline are communicated and crossly connected with a sixth length direction vacuum pipeline, two sixth vacuumizing connection auxiliary pipelines which are arranged along the length direction of the platform body are further arranged in the middle of each sixth width direction vacuum pipeline, one end of each sixth vacuumizing connection auxiliary pipeline extends into the third communicated adsorption area and is provided with a corresponding vacuumizing interface, the other end of each sixth vacuumizing connection auxiliary pipeline is connected to the side edge of the platform body, and the sixth width direction vacuum pipelines, the sixth length direction vacuum pipelines and the sixth vacuumizing connection auxiliary pipelines are all located on the first horizontal plane.
Like this, increased at platform body along length direction's one end side and set up fifth intercommunication adsorption zone and sixth intercommunication adsorption zone, these two regions are less than platform width direction's size at platform length direction's size, have greatly increased the size kind scope that can form adsorption zone for the glass screen product that more shapes required can be integrated and realize fixed cutting on a work platform. And the fifth intercommunication adsorption zone and the sixth intercommunication adsorption zone self structure setting have simple structure, easily processing, can draw the vacuum pumping interface to platform middle part position in order to make things convenient for advantages such as evacuation. When the vacuum pumping device is implemented, the vacuum pumping pipelines which are positioned in the same communicated adsorption area and are not positioned on the same horizontal plane are communicated by virtue of the channel arranged in the vertical direction of the platform body.
During specific implementation, the arrangement structure of the fifth communicated adsorption region and the sixth communicated adsorption region can be adjusted as follows, under the condition that the projection positions of the vacuum pipelines in the fifth communicated adsorption region and the sixth communicated adsorption region on the horizontal plane are not changed, the positions of the vacuum pipelines in the vertical direction of the platform body are adjusted, so that the fifth width direction vacuum pipelines, the sixth width direction vacuum pipelines and the sixth length direction vacuum pipelines on the same side of the fifth length direction vacuum pipeline are all arranged on the second horizontal plane, and the rest sixth length direction vacuum pipelines, the fifth length direction vacuum pipelines, the auxiliary pipelines for fifth vacuumizing connection and the auxiliary pipelines for sixth vacuumizing connection are all arranged on the first horizontal plane. Therefore, all vacuum pipelines can be arranged only in two horizontal planes, the thickness required by the platform body is greatly reduced, and materials are saved. Only in such an arrangement mode, a plurality of vertical holes need to be formed in the platform body between the fifth width direction vacuum pipelines and the fifth length direction vacuum pipelines to enable the vertical holes to be communicated, and the platform is relatively inconvenient to machine.
Claims (10)
1. The utility model provides a fixed work platform of integral screen glass cutting, its characterized in that, includes a platform body that is integral horizontal flat structure, and platform body upper surface is the supporting plane, and a plurality of vertical decurrent absorption mouths have been seted up to platform body upper surface, and the absorption mouth is even array and arranges, and platform body inside has along many vacuum pipe ways of horizontal direction setting, and each absorption mouth all communicates on the vacuum pipe way that corresponds.
2. The fixed work platform for cutting integral screen glass according to claim 1, wherein the vacuum pipe is a pipe having a circular cross section and arranged in a linear direction, and at least one end of the vacuum pipe is provided on a side surface of the platform body.
3. The integrated screen glass cutting and fixing working platform as claimed in claim 2, wherein a plug is arranged on an opening on the side surface of the platform body of the vacuum pipeline, and a vertical vacuumizing port is arranged below the platform body and communicated with the vacuum pipeline.
4. The integrated screen glass cutting and fixing working platform as claimed in claim 2, wherein the platform body is further provided with mounting holes for mounting and fixing itself at least on two opposite sides.
5. The fixed work platform of claim 2 in which the mounting holes are in a plurality and evenly spaced horizontal rows.
6. The integrated fixed work platform for cutting screen glass according to claim 1, wherein a plurality of vacuum pipes are communicated with each other to form a communicated adsorption area corresponding to at least one specific model of product, a plurality of communicated adsorption areas are formed on the platform body, and each communicated adsorption area is provided with a pair of vacuum pumping ports which are positioned below and communicated with the vacuum pipes.
7. The integrated fixed work platform for cutting screen glass according to claim 6, wherein the communicating adsorption regions are arranged in a semi-surrounding structure from inside to outside as a whole.
8. The integrated fixed work platform for cutting screen glass according to claim 6, wherein the vacuum-pumping ports of the respective communicating and adsorbing regions are located at the middle position below the platform body and are integrally arranged around the platform body in a ring-like structure.
9. The fixed work platform of claim 6, wherein the communication adsorption region comprises a first communication adsorption region located at the middle position of one side of the platform body, the first communication adsorption region comprises a plurality of first length-direction vacuum pipes arranged at regular intervals along the width direction of the platform body, the first length-direction vacuum pipes extend from one side of the length direction of the platform body to the vicinity of the middle part of the platform body along the length direction, the first communication adsorption region further comprises at least one first width-direction vacuum pipe arranged along the width direction of the platform, the first width-direction vacuum pipe is in through connection with the first length-direction vacuum pipes and extends to the side along one side of the width direction of the platform body, and the first length-direction vacuum pipe and the first width-direction vacuum pipe are both located on a first horizontal plane;
the communicated adsorption region further comprises a second communicated adsorption region which is arranged outside the first communicated adsorption region in a semi-surrounding mode, the second communicated adsorption region comprises a plurality of second length direction vacuum pipelines distributed on two sides of the first communicated adsorption region in the width direction of the platform body, the second length direction vacuum pipelines are uniformly arranged in the width direction of the platform body at intervals, the second communicated adsorption region further comprises at least one second width direction vacuum pipeline, the second width direction vacuum pipelines are uniformly arranged in the length direction of the platform body at intervals and are positioned on the outer side, away from the direction of the first width direction vacuum pipeline, the second width direction vacuum pipelines extend to the side edge along one side of the width direction of the platform body, the direction of the second width direction vacuum pipelines extending to the side edge of the platform body is opposite to the direction of the first width direction vacuum pipelines extending to the side edge of the platform body, the second length direction vacuum pipelines and the second width direction vacuum pipelines are both positioned on a second horizontal plane, and the first horizontal plane are arranged in a staggered mode in the height direction;
the communicated adsorption region further comprises a third communicated adsorption region which is arranged outside the second communicated adsorption region in a semi-surrounding mode, the third communicated adsorption region comprises a plurality of third length direction vacuum pipelines distributed on two sides of the second communicated adsorption region in the width direction of the platform body, the third length direction vacuum pipelines are uniformly arranged at intervals in the width direction of the platform body, the third communicated adsorption region further comprises at least one third width direction vacuum pipeline, the third width direction vacuum pipelines are uniformly arranged at intervals in the length direction of the platform body and are positioned on the outer side, away from the direction of the first communicated adsorption region, of the second width direction vacuum pipelines, the third width direction vacuum pipelines extend to the side edge of the platform body along one side of the width direction of the platform body, the direction in which the third width direction vacuum pipelines extend to the side edge of the platform body is the same as the direction in which the second width direction vacuum pipelines extend to the side edge of the platform body, the third length direction vacuum pipelines positioned on the same side in the direction with the third width direction vacuum pipelines extending to the side edge of the platform body are positioned on the first horizontal plane, and the third length direction vacuum pipelines and the third width direction vacuum pipelines on the other side are positioned on the second horizontal plane;
the intercommunication adsorption zone still includes the fourth intercommunication adsorption zone, the fourth intercommunication adsorption zone includes the fourth length direction vacuum pipe that distributes in the third intercommunication adsorption zone both sides on platform body width direction, the fourth intercommunication adsorption zone still includes the fourth width direction vacuum pipe that extends along platform body width direction, be located the second horizontal plane with the fourth length direction vacuum pipe that this side direction that first width direction vacuum pipe is connected to platform body side is unanimous, the fourth length direction vacuum pipe and the fourth width direction vacuum pipe of opposite side are located the first horizontal plane.
10. The integrated screen glass cutting and fixing work platform of claim 9, wherein the communicating and adsorbing region further comprises a fifth communicating and adsorbing region, the fifth communicating and adsorbing region is located at one end of the platform body facing away from the first communicating and adsorbing region, the fifth communicating and adsorbing region comprises a plurality of fifth width-direction vacuum pipelines arranged along the width direction of the platform body, the fifth width-direction vacuum pipelines are uniformly arranged along the length direction of the platform body at intervals, one end of the fifth width-direction vacuum pipeline extends to the side edge of the platform body, the other end of the fifth width-direction vacuum pipeline is connected with a fifth length-direction vacuum pipeline arranged along the length direction of the platform body in a crossing and penetrating manner, one end of the fifth length-direction vacuum pipeline facing away from the first communicating and adsorbing region extends to the side surface of the end portion of the platform body, the fifth width-direction vacuum pipeline and the fifth length-direction vacuum pipeline are both located on the second horizontal plane, the fifth communicating and adsorbing region further comprises two fifth vacuum-connection auxiliary pipelines arranged along the length direction of the platform body, the fifth vacuum-connection auxiliary pipelines are located on the third horizontal plane, one end of the fifth vacuum-connection auxiliary pipelines extends into the third communicating and the corresponding vacuum-connecting and the side edge of the platform body is connected to the platform body;
the communicated adsorption area further comprises a sixth communicated adsorption area, the sixth communicated adsorption area comprises sixth width direction vacuum pipelines which are arranged at the end part of the platform body in parallel at intervals with the fifth width direction vacuum pipelines, one end of each sixth width direction vacuum pipeline is communicated to the side edge of the platform body, two ends of each sixth width direction vacuum pipeline are communicated and connected with a sixth length direction vacuum pipeline in a crossing mode, two sixth vacuumizing connection auxiliary pipelines which are arranged along the length direction of the platform body are further arranged in the middle of each sixth width direction vacuum pipeline, one end of each sixth vacuumizing connection auxiliary pipeline extends into the third communicated adsorption area and is provided with a corresponding vacuumizing interface, the other end of each sixth vacuumizing connection auxiliary pipeline is connected to the side edge of the platform body, and the sixth width direction vacuum pipelines, the sixth length direction vacuum pipelines and the sixth vacuumizing connection auxiliary pipelines are all located on the first horizontal plane.
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