TW201504003A - Process system for one tempered glass sheet formed of G2 touch sensor unit cell and process method using the same - Google Patents

Abstract

The present invention relates to a process system for one tempered glass sheet formed of G2 touch sensor unit cell and process method using the same. The present invention is characterized in that: a first sand blasting part is disposed behind the transfer conveyer for transferring and conveying the tempered glass sheet, so as to form the first and second extension working tables. A first hoisting device is disposed above the first extension working table to go up and down for operation. A second hoisting device is disposed above the second extension working table to go up and down and to move forward and backward. A second sand blasting device is disposed behind the first sand blasting part to form the third and the fourth extension working tables. A reversing device is disposed behind the third extension working table to go up and down and to rotate for operation, so as to reverse the upper side and lower side of the tempered glass sheet. The second sand blasting device is disposed behind the third extension working table for cutting the bottom of the vertically reversed tempered glass sheet. By passing the tempered glass sheet through the transfer conveyer, the first sand blasting part, and the second sand blasting part sequentially, the first hoisting device makes the tempered glass sheet adhere to a magnet. The first sand blasting part cuts the top of the tempered glass sheet. The reversing device vertically reverses the tempered glass sheet passing through the first sand blasting part. The second hoisting device moves the tempered glass sheet for the detachment and attachment of the magnet. The second sand blasting cuts the bottom of the tempered glass sheet, so as to obtain a plurality of touch screens formed of the G2 touch sensor unit cell.

Description

Single tempered glass sheet processing system formed by unit unit G2 touch sensor and tempered glass sheet processing method using same

The invention relates to the processing of a single tempered glass plate forming a unit unit G2 type touch sensor, in particular to a single tempered glass plate formed by cutting a plurality of G2 type touch sensors, and manufacturing a unit unit formed by a G2 type touch sensor. The touch screen is formed by a unit unit of the G2 mode touch sensor of a single tempered glass sheet processing system and a tempered glass sheet processing method using the same.

In general, touch sensors are used on smartphones, tablets, and touch screen TVs. Such touch screens are based on whether the touch sensors use glass plates and films, and general G1F1, GF2, G2, and the like.

Here, preferably, the G2 mode touch screen does not use a film at all, and the touch sensor is directly fabricated in a single tempered glass.

The smart phone, tablet, and touch screen TV set with this G2 touch screen achieve ultra-thin, light weight and vivid color.

The above-described conventional G2 touch panel manufacturing method is as follows.

First, cut the glass plate (10) into the specifications of the product to be used with the touch screen. The unit unit of the corresponding size (S10).

In this case, the above glass plate (10) is not tempered.

At this time, the glass plate (10) is cut by scoring, water jet or laser beam.

The glass sheet (10) cut by the above method is preferably used to examine whether or not post-processing is required for cutting.

Next, a plurality of unit unit glass sheets (10a) formed by cutting the glass sheet (10) are reprocessed according to a fixed specification. In this state, a circular shape, a hole, or the like is processed on the unit unit glass plate (10a) (S20).

Thereafter, on the respective unit unit glass plates (10a) obtained by the above-described project, a process of forming the touch sensor (20) is performed (S30), and a unit unit G2 type touch panel (S40) is obtained.

However, the method of manufacturing a touch screen in a single unit has the following problems: cutting a glass plate, separately forming a touch sensor on a plurality of unit cell glass plates obtained, and manufacturing a G2 mode touch screen takes a long time in multiple projects. In the process, scratches, fine chipping, cracks, and the like appear on the unit unit glass plate, and thus, the G2 mode touch panel failure rate increases, and there is a problem that productivity is lowered and yield is reduced.

Therefore, recently, a method of producing a plurality of unit unit touch panels by using a single tempered glass sheet formed by cutting a G2 type touch sensor is mainly used.

Referring to Fig. 3, the upper surface of a single tempered glass sheet (600) forming a G2 type touch sensor (601) is subjected to dicing cutting by sand blasting, scribing, water jet or laser beam method.

Then, the operator reverses the upper and lower sides of the above tempered glass plate (600) for In the same manner as described above, the lower surface of the tempered glass sheet (600) is cut to obtain a plurality of unit unit touch screens.

At this time, the tempered glass sheet (600) is composed of a small tempered glass sheet or a large tempered glass sheet, and the yield of the unit unit touch panel is also different depending on the size thereof.

Here, preferably, when the small-sized tempered glass sheet (600) is subjected to a cutting operation, the individual operator holds the tempered glass sheet (600) and reverses the upper and lower sides.

On the contrary, as the area of the large tempered glass sheet (600) increases, when the tempered glass sheet (600) is reversed, at least two or more operators are required to hold one of the tempered glass sheets (600). Side, rotate.

That is, referring to Fig. 4, the operator grips one side of the tempered glass plate (600) with both hands, so that two operators simultaneously cross each other and rotate to make the tempered glass plate (600) up and down. Flip.

Further, in the state in which the tempered glass sheet (600) is turned over, in the lower state, the two operators simultaneously move the tempered glass sheet (600) downward, and the tempering is lowered on the work table or the table. The glass plate (600) reverses the above tempered glass plate (600).

Thereafter, various processing operations are performed on the touch panel described above, and a plurality of unit unit touch panels are obtained.

However, in the case where the single large-sized tempered glass sheet formed by the G2 type touch sensor is cut by the above-described method, there are the following problems.

First, there are operators who should directly transport large tempered glass panels. Difficulties, during transportation, the tempered glass sheet may be damaged or the tempered glass sheet may fall due to the operator's mistake, resulting in damage to the tempered glass sheet.

Secondly, after the upper surface of the tempered glass plate is cut, the thickness of the tempered glass plate is almost half thin. In order to cut the underside of the tempered glass plate, when the operator lifts the tempered glass plate, the tempered glass plate is damaged. The possibility of an increase in the possibility.

Thirdly, in the case of lifting a large tempered glass sheet, the center portion of the tempered glass sheet sinks compared with the small tempered glass sheet, and the tempered glass sheet may be damaged or deformed. Depending on the area and weight of the tempered glass sheet, the number of people carrying it increases, thereby increasing the number of unnecessary workers and increasing the labor cost.

Fourth, there is a problem that the operator should directly reverse the underside of the tempered glass plate. The processing position of the inverted tempered glass plate should be set again. In the middle of the reversal, the tempered glass plate conflicts with the external device, and damage may occur. There is a problem that the operator should thoroughly and carefully view the processing of the tempered glass sheet.

The present invention provides a single tempered glass sheet processing system formed by a G2 type touch sensor, which is characterized in that a first blasting portion is provided behind a transfer conveyor for transferring a tempered glass sheet, and the first and second extension work are formed. a first hoisting device is provided above the first extension table for raising and lowering operation; a second lifting device is provided above the second extension table for lifting and moving forward and backward; and a second blasting portion is provided behind the first blasting portion. Forming a third and fourth extension table; and providing a reversing device above the third extension table The moving and rotating operation reverses the upper and lower surfaces of the tempered glass sheet, and the second blasting portion is provided behind the third extension table, and the lower surface of the tempered glass sheet is cut and inverted. By sequentially passing the tempered glass sheet through the transfer conveyor, the first blasting portion and the second blasting portion, the first lifting device attaches a magnet to the tempered glass sheet, and the first blasting portion cuts the upper surface of the tempered glass sheet, and the reversing device The tempered glass plate of the first blasting part is reversed up and down, the second lifting device moves the tempered glass plate, the magnet is detached, and the second blasting part cuts the underside of the tempered glass plate, and the unit unit formed by the G2 type touch sensor is obtained. Multiple touch screens.

In order to solve the above problems, the present invention aims to provide a single tempered glass sheet processing system for forming a unit unit G2 type touch sensor, which comprises: a transfer conveyor which is formed on a plurality of The tempered glass plate of the G2 touch sensor enters; the first back plate is disposed behind the transfer conveyor, and supports the tempered glass plate transferred by the transfer conveyor below; the first blasting portion is disposed at the transfer The first rear end and the rear end of the conveyor are respectively formed with first and second extension tables, and the first back plate on which the tempered glass plate is placed is supported downward, and the steel to be lifted is accommodated on the first back plate. The glass plate is cut to the upper surface of the tempered glass plate; the first lifting device is disposed above the first extension table, and has a magnet on the bottom surface, and the magnet is attached to the first back plate by the lifting operation. a tempered glass plate upper surface; the reversing device portion is disposed behind the first blasting portion, and is moved up and down and rotated to reverse the upper and lower surfaces of the tempered glass sheet; 2 backsheet, provided below the portion of the reversing device, on the support below the lower surface of the glass plate inverted; a second lifting device which is provided in the second extended above the table, and moves down Moving forward and backward to disengage the magnet on the upper surface of the tempered glass sheet on the first backing plate, and placing the tempered glass sheet that has been inverted by the upper and lower surfaces of the reversing device portion on the second backing plate. And attaching a magnet to the tempered glass plate; and the second blasting portion is disposed behind the first blasting portion, and the third and fourth extension tables are respectively formed at the front and rear ends, and the tempered glass plate is supported under the support The second backing plate houses the tempered glass sheet placed on the second backing plate and cuts the lower surface of the tempered glass sheet.

The single tempered glass sheet processing system of the G2 mode touch sensor forming the unit unit of the present invention is characterized in that it comprises: a transfer conveyor that allows a tempered glass sheet on which a plurality of G2 mode touch sensors are formed to enter; the first back The plate is disposed behind the transfer conveyor, and the tempered glass plate transferred by the transfer conveyor is attached to the lower side; the first blasting portion is disposed behind the transfer conveyor, and the first and second extensions are formed at the front and rear ends, respectively. a table that supports the first backing plate on which the tempered glass sheet is placed, and accommodates the tempered glass sheet placed on the first backing plate to cut the upper surface of the tempered glass sheet; The first blasting portion is disposed behind the first blasting portion, and is moved up and down to rotate the upper and lower surfaces of the tempered glass sheet. The second backing plate is disposed below the reversing device portion and supported on the lower side. The tempered glass plate reversed below; the second lifting device is disposed above the second extension table, moves up and down, moves back and forth, and passes through the reversing device The inverted tempered glass sheet is placed on the second backing plate; and the second blasting portion is disposed behind the first blasting portion, and the front and rear ends are respectively formed with third and fourth extension tables, which are The lower support is placed on the second back plate hoisted by the tempered glass plate, and is placed on the second back plate The above tempered glass sheet is cut on the lower surface of the tempered glass sheet.

A single tempered glass sheet processing system for forming a unit unit G2 type touch sensor according to the present invention includes: a first back sheet supporting a tempered glass sheet on which a plurality of G2 type touch sensors are formed under the support; a sandblasting unit having a first and a second extension table at a front end and a rear end thereof, wherein the first back plate on which the tempered glass plate is placed is supported below, and the tempered glass placed on the first back plate is accommodated a plate that cuts the upper surface of the tempered glass sheet; the first lifting device is disposed above the first extension table, and has a magnet on the bottom surface, and the magnet is attached to the first back plate by the lifting operation Tempered glass plate above.

The single tempered glass sheet processing system of the G2 type touch sensor forming the unit unit of the present invention is characterized in that the transfer conveyor comprises: a work table; and a running portion, which is a pair of oppositely disposed on opposite sides of the work table; a plurality of rotating bars disposed between the operating portions along a longitudinal direction of the work table at a predetermined interval; and a plurality of rotating rollers disposed at a predetermined interval along a longitudinal direction of the rotating bar The above tempered glass sheet is supported below.

The single tempered glass sheet processing system formed by the G2 type touch sensor of the unit unit of the present invention is characterized in that the first and second blasting portions comprise: a casing; a gas nozzle disposed inside the casing, moving up and down and moving forward and backward Moving the left and right to cut the tempered glass sheet; and transferring the guides to each other at opposite ends of the inner bottom surface of the outer casing, and moving inside and outside the outer casing to move the first backing plate and the second backing plate.

The single steel formed by the G2 mode touch sensor of the unit unit of the invention The glass plate processing system is characterized in that: the front side of the transfer conveyor further comprises: a cylinder for lifting movement; and a pressure rod disposed at the rear of the cylinder to move the front side of the tempered glass sheet while moving forward and backward Pressurize.

A single tempered glass sheet processing system for forming a unit unit G2 touch sensor according to the present invention is characterized in that the first and second back sheets have a hollow shape, a plurality of through holes are formed in the upper surface, and a vacuum hose is connected to the bottom surface. The above-mentioned through hole is used to suck in air and adsorb the above-mentioned tempered glass sheet.

The single tempered glass sheet processing system of the G2 mode touch sensor forming the unit unit of the present invention is characterized in that the reversing device portion includes: a frame, which moves up and down and moves forward and backward; and a rotating plate which is disposed in the frame Next, the tempered glass sheet placed on the upper surface of the first backing plate is adsorbed, and the upper and lower surfaces of the tempered glass sheet are reversed by a rotating operation.

A single tempered glass sheet processing system for forming a unit cell G2 touch sensor according to the present invention is characterized in that the inverting device portion forms a plurality of first air intake air on one of the upper surface or the lower surface of the rotating plate. Suction hole.

In the single tempered glass sheet processing system formed by the G2 type touch sensor of the unit unit of the present invention, the first and second lifting devices are detached from the tempered glass sheet by an electromagnet method.

In the single tempered glass sheet processing system of the G2 type touch sensor in which the unit unit is formed, the second lifting device is formed with a plurality of air absorbing holes that are formed with suction air to adsorb the tempered glass sheet.

The single steel formed by the G2 mode touch sensor of the unit unit of the invention A method for processing a glass plate, comprising: a first process, transferring a tempered glass plate forming a plurality of G2 type touch sensors by a transfer conveyor, and placing the tempered glass plate on the first back plate; and performing a first lifting operation in the second process The device attaches a magnet to the upper surface of the tempered glass plate placed on the first back plate; and in the third process, the tempered glass plate placed on the first back plate is moved to the first blasting portion, and the cutting is performed In the fourth step, after the third process, the magnet attached to the tempered glass sheet discharged from the first blasting portion is separated from the second lifting device; and the fifth step is performed by the reversing device portion. The rotating plate adsorbs the tempered glass plate of the detached magnet, and reverses the upper and lower surfaces of the tempered glass plate; and in the sixth process, the second hoisting device sucks and moves the tempered glass that is inverted through the lower surface of the rotating plate a seventh step of placing the tempered glass sheet adsorbed on the second lifting device on the second backing plate and attaching the magnet; and in the eighth step, the tempering placed on the second backing plate glass The plate is moved to the second blasting portion and cut under the tempered glass plate.

A single tempered glass sheet processing method for forming a G2 type touch sensor of a unit unit, comprising: a first process, transferring a tempered glass sheet forming a plurality of G2 type touch sensors by a transfer conveyor, and placing a first backing plate; a second process of adsorbing and moving the tempered glass sheet by the first backing plate; and a third process of moving the tempered glass sheet adsorbed on the first backing plate to the first blasting portion Cutting the upper surface of the tempered glass sheet; in the fourth process, after the third process, the adsorption state of the tempered glass sheet discharged from the first blasting portion is released; and the fifth step is performed by the rotating plate of the reversing device portion The above tempering that is desorbed on the first backing plate a glass plate, which reverses the lower surface of the tempered glass plate; and a sixth process, the second hoisting device adsorbs and moves the tempered glass plate reversed by the lower surface of the rotating plate; and the seventh process is adsorbed to the first 2, the tempered glass plate adsorbed by the lifting device is placed on the second back plate; in the eighth process, the tempered glass plate is adsorbed and moved by the second back plate; and the ninth process is placed on the second back plate The tempered glass sheet is moved to the second blasting portion (1320) and cut under the tempered glass sheet.

A single tempered glass sheet processing method for forming a unit cell G2 touch sensor according to the present invention is characterized in that, in the second process, the fourth process, and the seventh process, a current is passed through the first and second back plates The magnet is detached and attached.

A single tempered glass sheet processing method for forming a unit cell G2 touch sensor according to the present invention is characterized in that, in the sixth process, the second lifting device moves up and down to adsorb the tempered glass sheet before the rotation The plate is released from the adsorbed state of the tempered glass sheet.

In the third method, the upper surface of the tempered glass sheet is cut into the tempered glass by the first blasting unit in the third process of the present invention. 50% of the entire thickness of the plate, in the eighth process, the lower surface of the tempered glass sheet was cut into 60% of the entire thickness of the tempered glass sheet by the second blasting portion.

A single tempered glass sheet processing method for forming a unit cell G2 touch sensor according to the present invention is characterized in that, in the third process, the upper surface of the tempered glass sheet is cut into the tempering by the first blasting unit In the ninth process, the lower surface of the tempered glass sheet was cut into 60% of the entire thickness of the tempered glass sheet (600) by the second blasting portion.

The single tempered glass plate processing method and the manufacturing method thereof for forming the G2 mode touch sensor of the unit unit are characterized in that the transfer of the tempered glass plate is automated, the work efficiency is improved, and the tempered glass plate is fixed on the back plate. During the transfer, there is no danger of falling, and the tempered glass sheet is transferred by the transfer unit, and does not fall. The automation of the transfer by the tempered glass sheet reduces the number of workers and saves labor costs.

Further, by using the reversing device portion, the automatic reverse rotation and the reversed position of the tempered glass sheet are automatically determined, and there is an advantage that a large tempered glass can be processed, and the upper processing can be reversed without any damage. The advantages of large tempered glass panels.

100‧‧‧Laminating machine

200‧‧‧ cutting machine

201‧‧‧Cutting knife

300‧‧‧ Sandblasting

301‧‧‧ gas nozzle

400‧‧‧etching sink

401‧‧‧Chemicals

402‧‧‧ brushes

500‧‧‧Sink

600‧‧‧glass plate

600a‧‧‧unit unit glass substrate

601‧‧‧G2 touch sensor

601a‧‧ Cutting Department

700‧‧‧Protective film

700a‧‧

701‧‧‧Protective film

1100‧‧‧Transport conveyor

1101‧‧‧Working table

1102‧‧‧Operation Department

1103‧‧‧Rotating rod

1104‧‧‧Rotating roller

1210, 1210'‧‧‧1st backplane

1211‧‧‧1st through hole

1212,1222‧‧‧vacuum hose

1220, 1220'‧‧‧2nd backplane

1211, 1221‧‧‧through hole

1310‧‧‧1st Sandblasting Department

1311‧‧‧1st extension workbench

1312‧‧‧2nd extension workbench

1313, 1323‧‧‧ Shell

1314, 1324‧‧ ‧ gas nozzle

1315, 1325‧‧‧Transfer Wizard

1320‧‧‧2nd blasting department

1321‧‧‧3rd extension workbench

1322‧‧‧4th extension workbench

1410‧‧‧1st lifting device

1411‧‧‧ Magnet

1420, 1420'‧‧‧2nd lifting device

1421‧‧‧Air adsorption hole

1500‧‧‧Reversing device department

1501‧‧‧Frame

1502‧‧‧Rotating plate

1502a‧‧‧1st suction hole

1610‧‧‧Frame

1620‧‧‧Rotating plate

1621‧‧‧1st suction hole

1630‧‧‧ lifting plate

1631‧‧‧2nd suction hole

1701‧‧‧ cylinder

1702‧‧‧Pressure rod

1 is a drawing of an engineering process for manufacturing a conventional G2 mode touch screen.

2 is a sequence diagram of a method of manufacturing a conventional G2 mode touch panel.

Fig. 3 is a drawing of a conventional tempered glass sheet processing project.

Fig. 4 is a schematic view showing a state in which a conventional tempered glass sheet is rotated.

Fig. 5 is a schematic view showing a single tempered glass sheet processing system for forming a unit cell G2 type touch sensor according to a first embodiment of the present invention.

Fig. 6 is a schematic view of Fig. 1 seen in plan.

FIG. 7 is a schematic view showing a state in which a magnet is attached to a tempered glass sheet by a first lifting device of a single tempered glass sheet processing system in which a unit cell G2 type touch sensor is formed in the first embodiment of the present invention.

8a to 8b are schematic perspective views of a state in which a reversing device portion of a single tempered glass sheet processing system of a G2 type touch sensor forming a unit unit according to the first embodiment of the present invention is reversed, and a tempered glass sheet is reversed. .

FIG. 9 is a schematic view showing a state in which a magnet is attached to a single hoisting and tempering glass plate of a single tempered glass sheet processing system of a G2 type touch sensor of a unit cell according to the first embodiment of the present invention.

Fig. 10 is a sequence diagram showing a method of processing a tempered glass sheet using a single tempered glass sheet processing system of a G2 type touch sensor forming a unit unit according to the first embodiment of the present invention.

Fig. 11 is a schematic view showing a single tempered glass sheet processing system for forming a unit cell G2 type touch sensor according to a second embodiment of the present invention.

12 is a schematic view showing a state in which a tempered glass sheet is attached to a second backing plate by a second lifting device of a single tempered glass sheet processing system of a G2 type touch sensor in which a unit unit is formed according to a second embodiment of the present invention; The figure.

Fig. 13 is a schematic perspective view showing the first and second back sheets of the single tempered glass sheet processing system of the G2 type touch sensor in which the unit unit is formed according to the second embodiment of the present invention.

Fig. 14 is a sequence diagram showing a method of processing a tempered glass sheet by a single tempered glass sheet processing system of a G2 type touch sensor forming a unit unit according to a second embodiment of the present invention.

In the following, the structure and function of the examples of the present invention will be described with reference to the accompanying drawings, and the configuration and operation of the present invention described with reference to the accompanying drawings are merely described as an embodiment, and the above-mentioned technical idea and core composition of the present invention and The role is not limited to this.

[First Embodiment]

The single tempered glass sheet processing system of the G2 type touch sensor forming the unit unit of the first embodiment is explained below.

As shown in FIG. 5 to FIG. 10, the transfer conveyor (1100) enters a tempered glass plate (600) formed of a plurality of G2 mode touch sensors (601) thereon, and the tempered glass plate (600) is turned toward The direction of the first blasting portion (1310) moves.

The transfer conveyor (1100) includes: a work table (1101); a running unit (1102), a pair of opposite sides disposed on opposite sides of the work table (1101); and a plurality of rotating bars (1103) along The working table (1101) has a longitudinal direction at a constant interval between the operating portions (120); and a plurality of rotating rollers (1104) along the longitudinal direction of the rotating rod (1103). The tempered glass plate (600) is supported below at a certain interval.

The operation unit (1102) rotates the plurality of rotating bars (1103) such that the rotating rollers (1104) transfer the tempered glass sheets (600).

The first backing plate (1210) is preferably made of a steel material, and is disposed behind the transfer conveyor (1100) to support the tempered glass sheet (600) transferred by the transfer conveyor (1100).

The first blasting portion (1310) is disposed behind the transfer conveyor (1100), and the first and second extension tables (1311, 1312) are formed at the front and the rear ends, respectively, and the tempered glass plate (600) is supported below. The first backing plate (1210) that is lifted is placed on the first backing plate (1210), and the tempered glass plate (600) is placed and the upper surface of the tempered glass plate (600) is cut.

The first blasting portion (1310) includes: a casing (1313); a nozzle (1314), It is disposed inside the outer casing (1313), moves up and down, moves forward and backward, moves left and right, cuts the tempered glass plate (600), and transports guides (1315), which are disposed opposite each other at the inner bottom surfaces of the outer casing (1313) The outer casing (1313) is moved externally to move the first backing plate (1210) and the second backing plate (1220).

The gas nozzle (1314) sprays an abrasive to cut the upper surface of the tempered glass sheet (600), and a plurality of the inside of the outer casing (1313).

The transfer guide (1315) moves before and after the inner space of the outer casing (1313) toward the first and second extension tables (1311, 1312), and the first back plate (1210) enters the outer casing (1313). Or it is guided to the outside of the above casing (1313).

The first blasting portion (1310) sprays an abrasive onto the tempered glass sheet (600) by the gas nozzle (1314), and preferably cuts a depth corresponding to 50% of the entire thickness of the tempered glass sheet (600).

The first lifting device (1410) is provided above the first extension table (1311), and includes a magnet (1411) on the bottom surface, and the tempered glass plate (600) is lifted up and down on the first back plate (1210). The above magnet (1411) is attached to the upper surface.

The first lifting device (1410) attaches the plurality of magnets (1411) to the tempered glass plate (600) by an electromagnet method.

The reversing device unit (1500) is disposed behind the first blasting unit (1300), and is moved up and down and rotated to reverse the upper and lower surfaces of the tempered glass sheet (600).

The inverting device portion (1500) includes: a frame (1501) that moves up and down and moves forward and backward; and a rotating plate (1502) that is disposed under the frame (1501) The tempered glass sheet (600) hoisted on the first back sheet (1210, 1210') is rotatably operated to reverse the upper and lower surfaces of the tempered glass sheet (600).

The inverting device unit (1500) forms a plurality of first suction holes (1502a) for taking in air on one of the upper surface or the lower surface of the rotating plate (1502).

The rotating plate (1500) is connected to an external vacuum hose (not shown), and air is taken in through the first suction hole (1502a).

Preferably, the rotating plate (1502) is relatively larger than the area of the tempered glass plate (600).

The second backing plate (1220) is preferably made of a steel material, and is provided below the inverting device portion (1500) to support the tempered glass sheet (600) which is inverted downward and supported downward.

The second lifting device (1420) is disposed above the second extension table (1312), moves up and down, moves forward and backward, and lifts the tempered glass plate on the first backing plate (1210). (600) The upper magnet (1411) is detached, and the tempered glass plate (600) whose upper and lower surfaces are reversed on the inverting device portion (1500) is suspended from the second back plate (1220). A magnet (1411) is attached to the tempered glass plate (600).

The second lifting device (1420) is detached from the tempered glass plate (600) by an electromagnet method and adhered to the second magnet (1411).

The second lifting device (1420) forms intake air on the lower surface, and adsorbs a plurality of air suction holes (1421) of the tempered glass plate (600).

a second blasting portion (1320) disposed after the first blasting portion (1310) The third, fourth, and fourth extension tables (1321, 1322) are respectively formed on the front side and the rear end, and support the second back plate (1220') hoisted by the tempered glass plate (600) below, The tempered glass plate (600) that is hoisted is housed on the back plate (1220'), and the lower surface of the tempered glass plate (600) is cut.

The second blasting portion (1320) includes: a casing (1323); a gas nozzle (1324) disposed inside the casing (1323), moving up and down, moving forward and backward, moving left and right, cutting the tempered glass plate (600); And a transfer guide (1325) disposed opposite to each other at both ends of the inner bottom surface of the outer casing (1323), and moving outside the outer casing (1323) to allow the first back plate (1210) and the second back plate (1220) mobile.

The gas nozzle (1324) sprays an abrasive, and cuts a plurality of the inside of the outer casing (1323) by cutting the lower surface of the tempered glass sheet (600).

The transfer guide (1325) moves before and after the internal space of the casing (1323) to the third and fourth extension tables (1321, 1322), and the first back plate (1210) enters the inside of the casing (1323). Or it is guided to the outside of the above casing (1323).

The second blasting portion (1320) sprays the abrasive onto the lower surface of the tempered glass sheet (600) by the gas nozzle (1324), and preferably cuts the depth corresponding to 60% of the entire thickness of the tempered glass sheet (600).

A cylinder (1701) is disposed in front of the transfer conveyor (1100), and moves up and down; a pressure rod (1702) is disposed behind the cylinder (1701), and the tempered glass sheet is simultaneously moved forward and backward. (600) Pressurize the side.

The cylinder (1701) moves the pressure rod (1702) back and forth in a state of moving up and down to move the tempered glass stopped on the transfer conveyor (1100). The plate (600) is pressurized in the direction of the first backing plate (1210) provided in the upper portion of the first extension table (1311) of the first blasting portion (1310).

The single tempered glass sheet processing system formed by the G2 type touch sensor of the unit unit of the first embodiment of the present invention configured as described above operates as follows.

First, the transfer conveyor (1100) enters a tempered glass plate (600) formed by a plurality of G2 mode touch sensors (601) so that the tempered glass plate (600) is lifted on the first back plate (1210) ( S1000).

At this time, the tempered glass plate (600) is not located on the first back plate (1210), and if it stays on the transfer conveyor (1100), it is disposed in front of the transfer conveyor (1100) by lifting movement. In the state of the cylinder (1701), the pressing rod (1702) is moved forward and backward so that the tempered glass sheet (600) staying on the transfer conveyor (1100) moves toward the first backing plate (1210). , pressurize.

Here, preferably, the transfer conveyor (1100) receives an external power source, operates the operation unit (1102), and the plurality of rotating bars (1103) provided between the operation units (1102) use the operation unit ( 1102) The rotating roller (1104) is rotated while the operation is being performed. Therefore, the rotating roller (1104) that supports the bottom surface of the tempered glass sheet (600) is moved rearward to move the tempered glass sheet (600).

Then, the first lifting device (1410) is operated to closely contact the plurality of magnets (1411) on the tempered glass sheet (600), and in this state, the first lifting device (1410) is cut. The plurality of magnets (1411) are separated from the first lifting device (1410) and adhered thereto. On the tempered glass plate (600) (S2000).

Here, it is preferable that the plurality of magnets (1411) fix the tempered glass sheet (600) to the first back sheet by a magnetic force attached to the first back sheet (1210) made of a metal material. (1210).

Thereafter, the first backing plate (1210) supporting the tempered glass sheet (600) is guided to guide the transfer guide (3115) of the first blasting portion (1310), and enters the outer casing of the first blasting portion (1310). (1313) Internal.

Further, the upper surface of the tempered glass sheet (600) that has entered the outer casing (1313) of the first blasting portion (1310) is sprayed with the air nozzle (1314) while passing through the fixed passage. The gas nozzle (1314) is transferred, and the upper surface of the tempered glass sheet (600) is cut into unit units of a size corresponding to the specifications of the product to be used by the touch panel by the abrasive (1314) (S3000).

Here, it is preferable that the first blasting portion (1310) cuts the upper surface of the tempered glass sheet (600) to a depth corresponding to 50% of the entire thickness of the tempered glass sheet (600).

The tempered glass sheet (600) that has been processed in the first blasting portion (1310) is discharged to the outside of the casing (1313) by the first backing plate (1210) moved by the transfer guide (1315). Move to the second extension table (1312).

At this time, the transfer guide (1315) causes the first backing plate (1210) discharged from the first blasting portion (1310) to be positioned on the second extension table (1312).

Further, the second lifting device (1420) is moved up and down, and is closely attached to the above The magnet on the upper surface of the tempered glass plate (600) hoisted on the first back plate (1210) receives current in this state, and the plurality of magnets (1411) are detached from the tempered glass plate (600) ( S4000)

Then, the frame (1610) of the inverting device portion (1500) is moved forward and backward, and is moved up and down, and is located on the upper portion of the tempered glass plate (600). In this state, the rotating plate (1502) adsorbs the tempered glass. At the same time as the plate (600), the frame (1501) moves up and down, and the tempered glass plate (600) is lifted and lowered to a state of being adsorbed onto the rotating plate (1502).

Thereafter, the rotating plate (1502) is rotated, the upper and lower surfaces of the tempered glass plate (600) are reversed (S5000), and the second lifting device (1420) is moved up and down to the rotating plate (1502). On the adsorption side, the above-mentioned tempered glass plate (600) which is inverted below is moved (S6000).

Here, preferably, the rotating plate (1620) sucks in air through the first suction hole (1502a) formed on the upper surface or the lower surface, and sucks the tempered glass plate (600), and the second lifting device (1420) is sucked by the air. The hole (1421) sucks in air and adsorbs the above tempered glass plate (600).

At this time, the second lifting device (1420) moves up and down to suck the tempered glass sheet (600), and the rotating plate (1502) releases the tempered glass sheet (600).

Further, the second lifting device (1420) moves forward and backward, and in this state, moves downward, and is lifted on the third extension table (1321) of the second blasting portion (1320). On the second back plate (1220), the tempered glass plate (600) is lowered.

Here, preferably, the second lifting device (1420) moves downward. Preferably, the inverting device unit (1500) is located above the second extension table (1312).

At this time, the second lifting device (1420) places the tempered glass plate (600) on the second backing plate (1220), and in this state, the current is cut, and the magnet (1411) adheres to the above. Below the tempered glass plate (600) (S7000).

Then, the tempered glass plate (600) is fixed to the second backing plate (1220), and the second backing plate (1220) is guided by the transfer guide (1325) of the second blasting portion (1320). The third extension table (1321) enters the inside of the casing (1323).

Here, it is preferable that the abrasive film is sprayed by the gas nozzle (1324) on the lower surface of the tempered glass plate (600) which has entered the outer casing (1323) of the second blasting portion (1320), and The gas nozzle (1324) is moved to a moving passage that cuts the upper surface of the tempered glass sheet (600), and the lower portion of the tempered glass sheet (600) is cut into a used portion by using the abrasive sprayed by the gas nozzle (1324). The size of the product of the touch screen corresponds to the size of the unit unit (S8000).

Here, it is preferable that the second blasting portion (1320) cuts the upper surface of the tempered glass sheet (600) into a depth corresponding to 60% of the entire thickness of the tempered glass sheet (600).

Further, the tempered glass sheet (600) processed on the second blasting portion (1320) is moved to the second blasting portion by the second backing plate (1220) moved by the transfer guide (1325) ( The second extension table (1322) of 1320) is discharged.

Here, it is preferable that the tempered glass sheet (600) located on the second extension table (1322) is moved by another robot arm or a growth device provided above the second extension table (1322).

[Second Embodiment]

A single tempered glass sheet processing system of the G2 type touch sensor type of the unit unit of the second embodiment will be described below.

Hereinafter, referring to FIG. 11 to FIG. 14, a single tempered glass sheet processing system for forming a unit unit G2 type touch sensor according to a third embodiment of the present invention is composed of a transfer conveyor (1100) and a first back sheet (1210). '), the first blasting portion (1310), the reversing device portion (1500), the second backing plate (1220'), and the second blasting portion (1520).

In the following description, the same components as those in the first embodiment are denoted by the same reference numerals, and the description thereof will be omitted.

The first backing plate (1210') is disposed behind the transfer conveyor (1100), and adsorbs the tempered glass plate (600) transferred by the transfer conveyor (1100) below; The first backing plate has a plurality of through holes (1211) formed in a hollow shape, and a vacuum hose (1212) is connected to the bottom surface, and the through hole (1211) is used to suck in air and adsorb the tempered glass sheet (600). ).

The second backing plate (1220') is disposed below the inverting device portion (1500), and adsorbs the tempered glass plate (600) that is moved downward by the upper and lower surfaces of the inverting device (1500) downward; The second back plate has a plurality of through holes (1221) formed in a hollow shape, and a vacuum hose (1222) is connected to the bottom surface, and is sucked through the through holes (1221). Gas, adsorbing the above tempered glass plate (600).

The single tempered glass sheet processing system of the G2 type touch sensor forming the unit unit according to the second embodiment of the present invention having the above configuration is operated as follows.

First, the transfer conveyor (1100) enters a tempered glass plate (600) formed by a plurality of G2 mode touch sensors (601) so that the tempered glass plate (600) is lifted on the first back plate (1210'). (S1000').

At this time, the tempered glass plate (600) is not located on the first back plate (1210'), and if it stays on the transfer conveyor (1100), it is disposed in front of the transfer conveyor (1100) by lifting movement. The cylinder (1701) moves the pressing rod (1702) forwardly and rearwardly to move the tempered glass sheet (600) staying on the transfer conveyor (1100) toward the first backing plate (1210'). , pressurize.

Here, it is preferable that the transfer conveyor (1100) receives an external power source and operates the operation unit (1102), and the plurality of rotating rods (1103) provided between the operation units (1102) are operated by the operation unit (1102). While the operation is being performed, the tumbling glass plate (600) is moved rearward by rotating the rotating roller (1104) to support the rotating roller (1104) on the bottom surface of the tempered glass plate (600).

Then, the vacuum hose (1212) of the first backing plate (1210') sucks in the air, so that the tempered glass sheet is adsorbed by the adsorption force of the outside air sucked through the first through hole (1211). 600).

Thereafter, the first backing plate (1210') that adsorbs the tempered glass sheet (600) below guides the transfer guide (1315) of the first blasting portion (1310), and enters The inside of the outer casing (1313) of the first blasting portion (1310) is formed (S2000').

Further, the upper surface of the tempered glass sheet (600) that has entered the outer casing (1313) of the first blasting portion (1310) is sprayed with the gas nozzle (1314) while moving the gas. The nozzle (1314) cuts the upper surface of the tempered glass sheet (600) into a unit unit (S3000') corresponding to the specification of the touch panel product to be used by the abrasive sprayed by the gas nozzle (1314).

Here, it is preferable that the upper surface of the tempered glass sheet (600) of the first blasting portion (1310) is cut to a depth corresponding to 50% of the entire thickness of the tempered glass sheet (600).

The first backing plate (1210') of the tempered glass sheet (600) processed by the first blasting unit (1310) is moved by the transfer guide (1315) to the second extension table (1312). Transfer.

At this time, the transfer guide (1315) causes the first backing plate (1210') discharged from the first blasting portion (1310) to be positioned on the second extension table (1312).

Here, preferably, the first backing plate (1210') supporting the tempered glass sheet (600) is positioned on the second extension table (1322), and the first backing plate (1210') is adsorbed. Release (S4000'), the tempered glass sheet (600) is in a movable state.

Then, the frame (1501) of the inverting device portion (1500) is moved forward and backward, and is moved up and down, and is located on the upper portion of the tempered glass plate (600). In this state, the rotating plate (1502) adsorbs the tempered glass. At the same time as the plate (600), the frame (1501) moves up and down, and the tempered glass plate (600) is lifted and lowered to be adsorbed. The state on the above rotating plate (1502).

Thereafter, the rotating plate (1502) is rotated to reverse the upper and lower surfaces of the tempered glass plate (600) (S5000'), and the second lifting device (1420') moves up and down on the rotating plate (1502). The tempered glass plate (600) inverted above is adsorbed and moved (S6000).

Here, preferably, the rotating plate (1502) sucks air through the first suction hole (1502a) formed on the upper surface or the lower surface, and adsorbs the tempered glass plate (600), and the second lifting device (1420') The tempered glass sheet (600) is adsorbed by sucking air through the air suction hole (1421) formed below.

At this time, the second lifting device (1420') moves up and down, and the rotating plate (1502) releases the tempered glass plate (600) until the tempered glass plate (600) is adsorbed.

Further, the second lifting device (1420') moves forward and backward, and in this state, moves downward and is lifted on the third extension table (1321) of the second blasting portion (1320). The tempered glass plate (600) (S7000') is placed on the upper surface of the second backing plate (1220').

Here, it is preferable that the inverting device portion (500) is located above the second extension table (1312) while the second lifting device (1420') is moving downward.

At this time, if the tempered glass sheet (600) is lifted on the second backing plate (1220'), the vacuum hose (1222) of the second backing plate (1220') sucks in air, so that the passage is passed. The second through hole (1221) sucks the tempered glass sheet (600) by sucking the suction force of the outside air.

Then, the tempered glass plate (600) is fixed to the second back plate (1220') The second backing plate (1220') is guided by the transfer guide (1325) of the second blasting portion (1320), and enters the inside of the casing (1323) of the second blasting portion (1320) (S8000').

Here, it is preferable that the abrasive film is sprayed by the gas nozzle (1324) on the lower surface of the tempered glass sheet (600) which has entered the outer casing (1323) of the second blasting portion (1320), and The gas nozzle (1324) moves to the moving passage of the division cutting on the tempered glass sheet (600), and the lower portion of the tempered glass sheet (600) is cut into the desired portion by the abrasive sprayed by the nozzle (1324). The unit of the size (S9000') corresponding to the specification of the product using the touch screen.

Here, it is preferable that the second blasting portion (1320) cuts the lower surface of the tempered glass sheet (600) to a depth corresponding to 60% of the entire thickness of the tempered glass sheet (600).

Further, the second blasting unit (1320) completes the second backing plate (1220') moved by the transfer guide (1325) on the tempered glass sheet (600) processed as follows, and goes to the second blasting part (1320). The 4th extension table (1322) is discharged.

As described above, after forming a protective film layer on a single tempered glass sheet formed of a plurality of G2 type touch sensors, the method of manufacturing a G2 type touch panel by dicing and cutting is characterized by tempered glass formed by a plurality of G2 type touch sensors. The board is cut to obtain a unit unit glass substrate formed by the G2 type touch sensor, thereby improving production efficiency, thereby achieving mass production, cutting the tempered glass sheet along the boundary of the protective film layer removal, and protecting the tempered glass sheet with the protective film layer According to the boundary of the protective film layer, the tempered glass can be clearly confirmed The division of the glass plate to be cut. The transfer of the tempered glass plate is automated, the work efficiency is improved, the tempered glass plate is fixed on the back plate, and there is no danger of falling during the transfer. The tempered glass plate is transferred through the transfer portion without falling. By automating the transfer of tempered glass sheets, the number of workers is reduced, and at the same time, labor costs are saved. The tempered glass plate is automatically reversed in the reversing device, the working speed is increased, and the reversed tempered glass sheet processing position is automatically reset. With the reversing device, the tempered glass plate is safely reversed without damage. Danger, through the automation of the tempered glass sheet processing project, the operator can also complete other business at the same time.

The single tempered glass sheet processing system of the G2 type touch sensor forming the unit unit of the present invention described above and the tempered glass sheet processing method using the same are merely one embodiment, and the configuration and effect of the present invention explained in accordance with the drawings are merely The description will be made as an embodiment, and the above-described technical idea and core configuration and action of the present invention are not limited thereto. From the above description, the relevant staff can make various changes and modifications within the scope of the technical idea of the present invention. Therefore, the technical scope of the present invention is not limited to the contents of the specification, and the technical scope thereof must be determined in accordance with the scope of the patent application.

1100‧‧‧Transport conveyor

1101‧‧‧Working table

1102‧‧‧Operation Department

1103‧‧‧Rotating rod

1104‧‧‧Rotating roller

1210‧‧‧1st backplane

1220‧‧‧2nd backplane

1310‧‧‧1st Sandblasting Department

1312‧‧‧2nd extension workbench

1313‧‧‧Shell

1314‧‧‧ gas nozzle

1315‧‧‧Transfer Wizard

1320‧‧‧2nd blasting department

1321‧‧‧3rd extension workbench

1322‧‧‧4th extension workbench

1410‧‧‧1st lifting device

1411‧‧‧ Magnet

1420‧‧‧2nd lifting device

1500‧‧‧Reversing device department

1501‧‧‧Frame

1502‧‧‧Rotating plate

1701‧‧‧ cylinder

1702‧‧‧Pressure rod

Claims (17)

A single tempered glass sheet processing system for forming a unit unit of a G2 mode touch sensor, comprising: a transfer conveyor (1100) for forming a plurality of G2 type touch sensors (601) tempered glass thereon The plate (600) enters; the first back plate (1210) is disposed behind the transfer conveyor (1100), and supports the tempered glass plate (600) transferred by the transfer conveyor (1100) below; the first blasting portion (1310), disposed behind the transfer conveyor (1100), forming first and second extension tables (1311, 1312) at the front and rear ends, respectively supporting the first of the tempered glass sheets (600) placed below a back plate (1210) for accommodating the tempered glass plate (600) placed on the first back plate (1210), cutting the upper surface of the tempered glass plate (600); and a first lifting device (1410) A magnet (1411) is provided on the bottom surface of the first extension table (1311), and the magnet (1411) is attached to the tempered glass plate (600) on the first back plate (1210). The reverse unit (1500) is disposed behind the first blasting unit (1300), and moves up and down The operation is such that the upper and lower surfaces of the tempered glass sheet (600) are reversed; and the second back sheet (1220) is disposed below the inverting device portion (1500) to support the above-described tempering in which the upper and lower surfaces are reversed. Glass plate (600); The second lifting device (1420) is disposed above the second extension table (1312), moves up and down, and moves back and forth to the tempered glass plate (600) placed on the first backing plate (1210). The upper magnet (1411) is disengaged, and the tempered glass plate (600) inverted by the upper and lower surfaces of the inverting device portion (1500) is placed on the second back plate (1220), and the tempered glass plate is placed on the tempered glass plate. (600) an upper attachment magnet (1411); and a second blasting portion (1320) disposed behind the first blasting portion (1310), and forming third and fourth extension tables (1321, 1322) at the front and rear ends, respectively. The second backing plate (1220) on which the tempered glass sheet (600) is placed is supported below, and the tempered glass sheet (600) placed on the second backing plate (1220) is accommodated to cut the tempered glass. Below the board (600). A single tempered glass sheet processing system that forms a unit unit of a G2 mode touch sensor is characterized by comprising: a transfer conveyor (1100) that forms a tempered glass sheet on which a plurality of G2 mode touch sensors (601) are formed ( 600) entering; the first backing plate (1210') is disposed behind the transfer conveyor (1100), and the tempered glass plate (600) transferred by the transfer conveyor (1100) is attached below; the first blasting part (1310), which is disposed behind the transfer conveyor (1100), and the first and second extension tables (1311, 1312) are respectively formed at the front and rear ends, and the above-mentioned first portion of the tempered glass plate (600) is supported under the support 1 back plate (1210'), placed in the above first back plate (1210') The upper tempered glass plate (600) cuts the upper surface of the tempered glass plate (600), and the reversing device portion (1500) is disposed behind the first blasting portion (1300) to move up and down and rotate. In order to reverse the upper and lower surfaces of the tempered glass sheet (600), the second back sheet (1220') is disposed below the inverting device portion (1500), and supports the tempered glass inverted in the upper and lower directions below. a plate (600); the second lifting device (1420') is disposed above the second extension table (1312), moves up and down, moves back and forth, and is reversed by the upper and lower surfaces of the inverting device portion (1500) The tempered glass plate (600) is placed on the second back plate (1220'); and the second blasting portion (1320) is disposed behind the first blasting portion (1310), and the front and rear ends respectively form the third and the third 4 extending the table (1321, 1322), which supports the second backing plate (1220') on which the tempered glass plate (600) is placed, and accommodates the above-mentioned tempering placed on the second backing plate (1220') A glass plate (600) is cut under the tempered glass plate (600). A single tempered glass sheet processing system for forming a G2 mode touch sensor of a unit unit is characterized by comprising: a first back sheet (1210) which is formed with a plurality of G2 type touch sensors (601) tempered glass on the lower side The plate (600) is supported; the first blasting portion (1310) has a first and a second extended table (1311, 1312) formed at the front and the rear end thereof, and the tempered glass is placed under the support The first back plate (1210) of the glass plate (600) accommodates the tempered glass plate (600) placed on the first back plate (1210), and cuts the upper surface of the tempered glass plate (600); A lifting device (1410) is provided above the first extension table (1311), and has a magnet (1411) on a bottom surface thereof, and the magnet (1411) is attached to the first back plate (1210) by a lifting operation. Above the above tempered glass plate (600); A single tempered glass sheet processing system for forming a unit unit G2 type touch sensor according to claims 1 and 2, characterized in that the transfer conveyor (1100) includes a work table (1101) and a running unit (1102) a pair of opposite sides disposed on the upper surface of the work table (1101); a plurality of rotating bars (1103) disposed along the longitudinal direction of the work table (1101) at a constant interval Between the operating portions (120); and a plurality of rotating rollers (1104) are provided at predetermined intervals along the longitudinal direction of the rotating rod (1103) to support the tempered glass sheet (600) below. A single tempered glass sheet processing system for forming a unit unit G2 type touch sensor according to claims 1 to 3, characterized in that the first and second blasting portions (1310, 1320) comprise: a casing (1313, 1323); a gas nozzle (1314, 1324) disposed in the outer casing (1313, 1323) a portion, moving up and down, moving forward and backward, moving left and right, cutting the tempered glass plate (600); and transferring guides (1315, 1325) which are disposed opposite each other at both ends of the inner bottom surface of the outer casing (1313, 1323) to the outer casing The first back plate (1210, 1210') and the second back plate (1220, 1220') are moved by internal and external movement. A single tempered glass sheet processing system for forming a unit unit G2 mode touch sensor according to claims 1 and 2, characterized in that the front side of the transfer conveyor (1100) further comprises: a cylinder (1701), The lifting rod (1702) is disposed behind the cylinder (1701), and pressurizes the side surface of the tempered glass sheet (600) while moving forward and backward. A single tempered glass sheet processing system for forming a cell unit G2 touch sensor according to claim 2, wherein the first and second back sheets (1210', 1220') have a hollow shape and are on the surface A plurality of through holes (1211, 1221) are formed, and vacuum hoses (1212, 1222) are connected to the bottom surface, and air is taken in through the through holes (1211, 1221) to adsorb the tempered glass plate (600). A single tempered glass sheet processing system for forming a unit unit G2 type touch sensor according to claims 1 and 2, wherein the inverting device portion (1500) includes a frame (1501) that moves up and down and Moving back and forth; and a rotating plate (1502) disposed below the frame (1501) The tempered glass sheet (600) placed on the upper surface of the first back sheet (1210, 1210') is adsorbed, and the upper and lower surfaces of the tempered glass sheet (600) are reversed by a rotation operation. A single tempered glass sheet processing system for forming a cell unit G2 touch sensor according to claim 8, wherein the inverting device portion (1500) is arbitrarily above or below the rotating plate (1502) On one surface, a plurality of first suction holes (1502a) that take in air are formed. A single tempered glass sheet processing system for forming a unit unit G2 type touch sensor according to claims 1 and 2, wherein the first and second lifting devices (1410, 1420) are made by an electromagnet method. The magnet (1411) is detached from the tempered glass plate (600) and attached. A single tempered glass sheet processing system for forming a unit unit G2 type touch sensor according to claims 1 and 2, wherein the second lifting device (1420, 1420') forms intake air underneath to adsorb the above A plurality of air absorbing holes (1421) of the tempered glass plate (600). A single tempered glass sheet processing method for forming a unit unit G2 mode touch sensor, comprising the following process: a first process (S1000), transferring a plurality of G2 mode touch sensors by a transfer conveyor (1100) (601) The tempered glass plate (600) is placed on the first back plate (1210); in the second process (S2000), the first lifting device (1410) is operated, and the magnet (1411) is attached to the first back. The upper surface of the above tempered glass plate (600) on the plate (210); In the third process (S3000), the tempered glass sheet (600) placed on the first back sheet (1210) is moved to the first blasting portion (1310), and the tempered glass sheet (600) is cut; 4 (S4000), after the third process (S3000), the magnet (1411) attached to the tempered glass plate (600) discharged from the first blasting portion (1310) is detached from the second lifting device (1420) In the fifth process (S5000), the tempered glass plate (600) of the detachment magnet (1411) is adsorbed by the rotating plate (1502) of the reversing device portion (1500) so that the tempered glass plate (600) is placed thereon. In the sixth process (S6000), the tempered glass plate (600) which is inverted and inverted by the rotating plate (1502) and the lower surface is moved by the second lifting device (1420); the seventh process (S7000) The tempered glass sheet (600) adsorbed to the second lifting device (1420) is placed on the second backing plate (1220), and the magnet (1411) is attached; the eighth process (S8000) is placed. The tempered glass sheet (600) on the second backing plate (1220) is moved to the second blasting portion (1320), and the lower surface of the tempered glass sheet (600) is cut. A single tempered glass sheet processing method for forming a unit unit G2 mode touch sensor, comprising the following process: a first process (S1000'), transferring a plurality of G2 mode touch sensors by a transfer forming conveyor (1100) a tempered glass plate (600) of (601) disposed on the first back plate (1210'); In the second process (S2000'), the tempered glass plate (600) is adsorbed and moved by the first back plate (1210'); the third process (S3000') is performed on the first back plate (1210') The adsorbed tempered glass sheet (600) moves to the first blasting portion (1310) to cut the upper surface of the tempered glass sheet (600); the fourth process (S4000'), after the third process (S3000), the release is performed The adsorption state of the tempered glass sheet (600) discharged from the first blasting portion (1310); and the fifth process (S5000') being adsorbed to the first back by a rotating plate (1502) of the reversing device portion (1500) The tempered glass plate (600) that is desorbed on the plate (1210') reverses the upper and lower surfaces of the tempered glass plate (600); the sixth process (S6000') is adsorbed by the second lifting device (1420') And moving the tempered glass plate (600) inverted through the upper and lower surfaces of the rotating plate (1502); the seventh process (S7000'), the tempered glass plate adsorbed to the second lifting device (1420') ( 600) placed on the second back plate (1220'); the eighth process (S8000'), adsorbing and moving the tempered glass plate (600) through the second back plate (1220'); the ninth process (S9000' ) will be placed on the above second backplane (1220') The tempered glass sheet (600) on the above is moved to the second blasting portion (1320) and cut under the tempered glass sheet (600). A single tempered glass sheet processing method for forming a cell unit G2 touch sensor according to claim 2, characterized in that in the second process (S2000), the fourth process (S4000), and the seventh process In (S7000), a current is passed through the first and second back plates (1210, 1220), and the magnet (1411) is detached and adhered. A single tempered glass sheet processing method for forming a cell unit G2 touch sensor according to claims 12 and 13, wherein in the sixth process (S6000), the second lifting device (1420, 1420') Before the moving and absorbing the tempered glass sheet (600), the adsorption state of the tempered glass sheet (600) is released on the rotating plate (1502). A single tempered glass sheet processing method for forming a unit cell G2 type touch sensor according to claim 12, characterized in that in the third process (S3000), the steel is passed through the first blasting portion (1310) The upper surface of the glass plate (600) is cut into 50% of the entire thickness of the tempered glass plate (600), and in the eighth process (S8000), the tempered glass plate (600) is passed through the second blasting portion (1320). The lower surface is cut to 60% of the entire thickness of the above tempered glass sheet (600). A single tempered glass sheet processing method for forming a unit cell G2 touch sensor according to claim 13, wherein in the third process (S3000'), the first blasting unit (1310) The upper surface of the tempered glass sheet (600) is cut into 50% of the entire thickness of the tempered glass sheet (600), and the tempered glass sheet is passed through the second blasting portion (1320) in the ninth process (S9000'). The lower surface of (600) is cut into 60% of the entire thickness of the above tempered glass sheet (600).